mhurhangee/patent-ind-claim-en huggingface dataset:
A blood treatment apparatus , comprising or connected to at least one - pump, in particular blood pump ; - control device ; - extracorporeal circuit having a line interior, wherein the extracorporeal circuit is connected to a connecting device for connecting a drug container comprising a liquid drug to the extracorporeal circuit , wherein the connecting device comprises an inlet line and an outlet line , to connect, respectively, an interior of the drug container to the line interior of the extracorporeal circuit ; wherein the inlet line is connected in fluid communication to a first section of the extracorporeal circuit ; and wherein the outlet line is connected in fluid communication to a second section of the extracorporeal circuit ; and wherein the extracorporeal circuit is connected to the blood treatment apparatus ; - pressure sensor for determining the pressure in the first or second section; characterized in that the control device is configured and/or programmed for - determining a parameter, which is an amount or a volume of an already applied drug and/or a remaining time required for the complete delivery of a predetermined amount or a predetermined volume of drug, the pressure prevailing in the drug container being determined or calculated by means of a model, and in that the inlet line comprises a first check valve which opens from an opening pressure (ΔP IN ) for this valve, which allows a flow only towards the interior of the drug container ; wherein the outlet line comprises a second check valve which opens from an opening pressure (ΔP OUT ) for this valve, which allows a flow only towards the exterior of the drug container . - pump, in particular blood pump ; - control device ; - extracorporeal circuit having a line interior, wherein the extracorporeal circuit is connected to a connecting device for connecting a drug container comprising a liquid drug to the extracorporeal circuit , wherein the connecting device comprises an inlet line and an outlet line , to connect, respectively, an interior of the drug container to the line interior of the extracorporeal circuit ; wherein the inlet line is connected in fluid communication to a first section of the extracorporeal circuit ; and wherein the outlet line is connected in fluid communication to a second section of the extracorporeal circuit ; and wherein the extracorporeal circuit is connected to the blood treatment apparatus ; - pressure sensor for determining the pressure in the first or second section; - determining a parameter, which is an amount or a volume of an already applied drug and/or a remaining time required for the complete delivery of a predetermined amount or a predetermined volume of drug, the pressure prevailing in the drug container being determined or calculated by means of a model,
Production machine for plastics processing comprising a plurality of machine components and a machine controller for controlling the plastics processing machine comprising a control program with an interactive user interface designed as a visualization device , preferably a touch-sensitive screen, wherein the control program is designed to visualize on the visualization device at least one, preferably all, of the machine components in their function during production in a display for each of these machine components and to provide corresponding switching fields for inputting process parameters with respect to the respective visualized machine component , characterized in that the display comprises at least one parameter-time diagram with movement curves of one or more components of the respective machine component , wherein at least one of the movement curves is subdivided into different suitably visualized movement sections , for which in each case the process-determining process parameter for this movement section is visualized, which can be varied via the provided switching fields , the display is preferably embodied as a multiple display which, in addition to the parameter-time diagram , comprises an image , correlated to the movement curves, of the components of this machine component.
A tomographic image generation device comprising: a probe unit including a catheter sheath configured to be inserted to the inside of a body cavity such as a blood vessel, and a drive shaft , the probe unit further including a transmitting and receiving unit in which an ultrasonic wave transmitting and receiving unit that performs ultrasonic wave transmission and reception and an optical transmitting and receiving unit that performs light transmission and reception are disposed along the axis direction on the rotary central axis of the drive shaft ; ultrasonic wave data acquisition means for acquiring ultrasonic wave data to be used for generating a tomographic image for one line in respective rotation positions of the transmitting and receiving unit by performing sampling on an ultrasonic wave echo signal obtained from the ultrasonic wave transmitting and receiving unit caused to be driven while rotating; interference light data acquisition means for acquiring interference light data to be used for generating a tomographic image for one line by performing sampling on an interference light signal obtained from the optical transmitting and receiving unit caused to be driven while rotating; and timing control means adapted to control operation timing of the acquisition means so that a sampling period for performing sampling on the interference light signal for one line and a predetermined period from driving of the ultrasonic wave transmitting and receiving unit for ultrasonic wave oscillation are not overlapped. a probe unit including a catheter sheath configured to be inserted to the inside of a body cavity such as a blood vessel, and a drive shaft , the probe unit further including a transmitting and receiving unit in which an ultrasonic wave transmitting and receiving unit that performs ultrasonic wave transmission and reception and an optical transmitting and receiving unit that performs light transmission and reception are disposed along the axis direction on the rotary central axis of the drive shaft ; ultrasonic wave data acquisition means for acquiring ultrasonic wave data to be used for generating a tomographic image for one line in respective rotation positions of the transmitting and receiving unit by performing sampling on an ultrasonic wave echo signal obtained from the ultrasonic wave transmitting and receiving unit caused to be driven while rotating; interference light data acquisition means for acquiring interference light data to be used for generating a tomographic image for one line by performing sampling on an interference light signal obtained from the optical transmitting and receiving unit caused to be driven while rotating; and timing control means adapted to control operation timing of the acquisition means so that a sampling period for performing sampling on the interference light signal for one line and a predetermined period from driving of the ultrasonic wave transmitting and receiving unit for ultrasonic wave oscillation are not overlapped.
Fragrance body for releasing fragrances, in particular in a dishwashing machine, consisting of or comprising a) a carrier consisting of or comprising at least one polymer and b) at least one fragrance distributed within the carrier, wherein the fragrance body has a central axis (M) and has a continuous elongated recess (N) extending along the central axis (M) or in parallel to the central axis (M) for receiving an elongated object and wherein the recess (N) is at least partially undercut, wherein due to the elongated recess (N) the fragrance body can be placed onto elongated objects and, due to the at least partial undercutting of the recess, can remain on the elongated object without falling off, characterized in that the carrier consists of a mixture of ethylene-vinyl acetate copolymer and polyethylene or comprises this mixture. a) a carrier consisting of or comprising at least one polymer and b) at least one fragrance distributed within the carrier, wherein the fragrance body has a central axis (M) and has a continuous elongated recess (N) extending along the central axis (M) or in parallel to the central axis (M) for receiving an elongated object and wherein the recess (N) is at least partially undercut, wherein due to the elongated recess (N) the fragrance body can be placed onto elongated objects and, due to the at least partial undercutting of the recess, can remain on the elongated object without falling off, characterized in that the carrier consists of a mixture of ethylene-vinyl acetate copolymer and polyethylene or comprises this mixture.
A fire-retardant composite comprising: (a) a porous core material comprising a first thermoplastic polymer comprising polyethylene terephthalate, a fire-retardant polypropylene, a polycarbonate, a polyimide, a polyethersulfone, a polyurethane, or a poly(phenylene ether)/styrene blend, or a blend thereof; (b) a first reinforced laminate disposed on a first side of the porous core, the first reinforced laminate comprising at least one layer, the layer comprising, based on the total weight of the layer: (i) 50 wt.% to 80 wt.% fibers, (ii) 20 wt.% to 50 wt.% of a second thermoplastic polymer comprising polypropylene, polyethylene, a polycarbonate, a polycarbonate copolymer, a polyethylene terephthalate, a polyethersulfone, a poly(phenylene) ether, poly(p-phenyl)oxide, or a polyimide, or a blend thereof; and (iii) 0 wt.% to 30 wt.% of a first fire-retardant composition; (c) a first fire-retardant film disposed on the outer surface of the first reinforced laminate, wherein the first fire-retardant film comprises, based on the total weight of first fire-retardant film: (i) 59 wt. % to 95 wt. % of a third thermoplastic polymer compatible with the second thermoplastic polymer; (ii) 5 to 40 wt.%, of a second fire-retardant composition; and (iii) 0 to 1 wt.% additives. (a) a porous core material comprising a first thermoplastic polymer comprising polyethylene terephthalate, a fire-retardant polypropylene, a polycarbonate, a polyimide, a polyethersulfone, a polyurethane, or a poly(phenylene ether)/styrene blend, or a blend thereof; (b) a first reinforced laminate disposed on a first side of the porous core, the first reinforced laminate comprising at least one layer, the layer comprising, based on the total weight of the layer: (i) 50 wt.% to 80 wt.% fibers, (ii) 20 wt.% to 50 wt.% of a second thermoplastic polymer comprising polypropylene, polyethylene, a polycarbonate, a polycarbonate copolymer, a polyethylene terephthalate, a polyethersulfone, a poly(phenylene) ether, poly(p-phenyl)oxide, or a polyimide, or a blend thereof; and (iii) 0 wt.% to 30 wt.% of a first fire-retardant composition; (i) 50 wt.% to 80 wt.% fibers, (ii) 20 wt.% to 50 wt.% of a second thermoplastic polymer comprising polypropylene, polyethylene, a polycarbonate, a polycarbonate copolymer, a polyethylene terephthalate, a polyethersulfone, a poly(phenylene) ether, poly(p-phenyl)oxide, or a polyimide, or a blend thereof; and (iii) 0 wt.% to 30 wt.% of a first fire-retardant composition; (c) a first fire-retardant film disposed on the outer surface of the first reinforced laminate, wherein the first fire-retardant film comprises, based on the total weight of first fire-retardant film: (i) 59 wt. % to 95 wt. % of a third thermoplastic polymer compatible with the second thermoplastic polymer; (ii) 5 to 40 wt.%, of a second fire-retardant composition; and (iii) 0 to 1 wt.% additives. (i) 59 wt. % to 95 wt. % of a third thermoplastic polymer compatible with the second thermoplastic polymer; (ii) 5 to 40 wt.%, of a second fire-retardant composition; and (iii) 0 to 1 wt.% additives.
A computing device , comprising: an input bridge , which is coupled to receive a sequence of data items for use by the device in execution of a program; an output bridge; a processing core , which is coupled to receive the data items from the input bridge and execute the program so as to cause the output bridge to output a signal in response to a given data item in the sequence; characterized by an authentication logic , which is coupled to receive and authenticate the data items while the processing core executes the program, and to inhibit output of the signal by the output bridge until the given data item has been authenticated. an input bridge , which is coupled to receive a sequence of data items for use by the device in execution of a program; an output bridge; a processing core , which is coupled to receive the data items from the input bridge and execute the program so as to cause the output bridge to output a signal in response to a given data item in the sequence; characterized by an authentication logic , which is coupled to receive and authenticate the data items while the processing core executes the program, and to inhibit output of the signal by the output bridge until the given data item has been authenticated.
Method for inspecting a vehicle on a site by using a management system (V), wherein the management system (V) is designed to coordinate vehicles on the site by means of at least one management function (F), wherein the management system (V) is further designed to control an inspection vehicle , wherein the inspection vehicle has a sensor system comprising at least one sensor for outputting sensor signals (S2) depending on surroundings (U) detected by the at least one sensor , the method comprising at least the following steps: - determining whether at least one vehicle on the site intends to depart (A) from a parking space (ST1); - generating at least one control command (B) by the management system (V) and transmitting the at least one control command (B) to the inspection vehicle such that the inspection vehicle moves along an inspection path (IP) towards the parking space of the vehicle intending to depart (A) (ST2, ST3); - detecting surroundings (U) of the inspection vehicle at the parking space of the vehicle by the sensor system in the inspection vehicle while a detection region of the at least one sensor is at least partially aligned with the sub-region beneath the vehicle and/or with the vehicle (ST4.1); and - determining, depending on the sensor signals (S2) generated by the sensor system , whether there is an obstacle (G) preventing the departure (A) of the vehicle , in order to carry out a departure check (AK) (ST5). - determining whether at least one vehicle on the site intends to depart (A) from a parking space (ST1); - generating at least one control command (B) by the management system (V) and transmitting the at least one control command (B) to the inspection vehicle such that the inspection vehicle moves along an inspection path (IP) towards the parking space of the vehicle intending to depart (A) (ST2, ST3); - detecting surroundings (U) of the inspection vehicle at the parking space of the vehicle by the sensor system in the inspection vehicle while a detection region of the at least one sensor is at least partially aligned with the sub-region beneath the vehicle and/or with the vehicle (ST4.1); and - determining, depending on the sensor signals (S2) generated by the sensor system , whether there is an obstacle (G) preventing the departure (A) of the vehicle , in order to carry out a departure check (AK) (ST5).
A rotary masonry drill comprising a drill bit , wherein the drill bit is provided with at least one groove , of which one groove has a center lying on the axis of rotation of the drill, each said at least one groove extending between two end points defining a groove width, the drill bit comprises at least two cutting edges , each cutting edge defining a respective cutting angle (α, β), the groove comprising a left side and a right side , characterized in that the groove width is between 0.6 mm and 1.8 mm, the left side and right side are parallel to each other, and the rotary drill bit has a diameter between 2 mm and 45 mm, and each cutting angle (α, β) is 0 degrees in relation to the axis of rotation , groove is deeper than it is wide.
Gear train comprising a housing , a shaft arranged in the housing , having at least a first, second and third shaft shoulder , a gear wheel arranged on a first shaft shoulder , a first axial lock which is arranged on a first side of the gear wheel and secures it axially, a second axial lock which is attached on the other side of the gear wheel to a second shaft shoulder and secures it axially, wherein the diameter (D 2 ) of the second shaft shoulder is smaller than the diameter (D 1 ) of the first shaft shoulder , a radial-axial sliding-contact bearing unit which mounts the shaft in the housing and is attached to the third shaft shoulder provided adjacent to the second shaft shoulder , the diameter (D 3 ) of which is smaller than the diameter (D 2 ) of the second shaft shoulder , and at least one further component attached to the shaft which defines a sliding surface for the axial sliding-contact bearing of the radial-axial sliding-contact bearing unit , characterised in that the second axial lock is designed and arranged such that it defines a running surface for the axial sliding-contact bearing of the radial-axial sliding-contact bearing unit .
A method of digitally customizing an object, comprising the steps of: providing at least one digital image file to a computer ; selecting a substrate of the object upon which an image from the digital image file is to be formed and fixed; transmitting the digital image file to at least one inkjet printer ; choosing a volume of ink emitted per dot by the inkjet printer for the image, wherein the ink comprises sublimation dye solids; forming the image on a print medium by the inkjet printer emitting a plurality of ink droplets, wherein each ink droplet is of a chosen volume, and wherein the plurality of ink droplets form the image on the print medium wherein the print medium serves as a transfer medium; and transferring the image from the transfer medium to the selected substrate by positioning the image printed on the transfer medium against the selected substrate and by applying heat and pressure, the heat causing the dye solids to sublimate so as to transfer the image from the transfer medium and permanently fix the image to the selected substrate; wherein the volume of ink per dot to be emitted by the inkjet printer is chosen as a function of both a primary dot gain of each dot on the transfer medium upon printing of the image on the transfer medium and a secondary dot gain on the selected substrate upon sublimation transfer and permanently fixing of the image to that said selected substrate. providing at least one digital image file to a computer ; selecting a substrate of the object upon which an image from the digital image file is to be formed and fixed; transmitting the digital image file to at least one inkjet printer ; choosing a volume of ink emitted per dot by the inkjet printer for the image, wherein the ink comprises sublimation dye solids; forming the image on a print medium by the inkjet printer emitting a plurality of ink droplets, wherein each ink droplet is of a chosen volume, and wherein the plurality of ink droplets form the image on the print medium wherein the print medium serves as a transfer medium; and transferring the image from the transfer medium to the selected substrate by positioning the image printed on the transfer medium against the selected substrate and by applying heat and pressure, the heat causing the dye solids to sublimate so as to transfer the image from the transfer medium and permanently fix the image to the selected substrate; wherein the volume of ink per dot to be emitted by the inkjet printer is chosen as a function of both a primary dot gain of each dot on the transfer medium upon printing of the image on the transfer medium and a secondary dot gain on the selected substrate upon sublimation transfer and permanently fixing of the image to that said selected substrate.
A method, performed by a processor located on board an inflight aircraft, for adjusting any correlation between a current perspective of a visual display and a default perspective of the visual display of the inflight aircraft, comprising: determining the default perspective of the visual display for the inflight aircraft; determining the current perspective of the visual display for the crew of the inflight aircraft; comparing the default perspective of the visual display with the current perspective of the visual display to determine if the current perspective of the visual display needs to transition to reflect the default perspective of the visual display; characterized by : selecting a rate of transition of the current perspective of the visual display that is based on current aircraft performance parameters ; and transitioning the current perspective of the visual display to reflect the default perspective of the visual display at the selected rate of transition. determining the default perspective of the visual display for the inflight aircraft; determining the current perspective of the visual display for the crew of the inflight aircraft; comparing the default perspective of the visual display with the current perspective of the visual display to determine if the current perspective of the visual display needs to transition to reflect the default perspective of the visual display; selecting a rate of transition of the current perspective of the visual display that is based on current aircraft performance parameters ; and transitioning the current perspective of the visual display to reflect the default perspective of the visual display at the selected rate of transition.
A ceramic-copper composite having a flat plate shape, comprising: a ceramic layer ; a copper layer ; and a brazing material layer present between the ceramic layer and the copper layer , wherein when a region having a length of 1,700 um in a long-side direction is a region P on a cut surface of the ceramic-copper composite obtained when the ceramic-copper composite is cut at a plane perpendicular to a main surface of the ceramic-copper composite, an average crystal grain size D1 of copper crystals at least partially present in a region P1 is 30 um or more and 100 μm or less, wherein the average crystal grain size D1 is measured using the Electron Backscattering Diffraction method; wherein the region P1 is a region within the region P extending 50 um in thickness direction of the ceramic-copper composite from an interface between the ceramic layer and the brazing material layer towards the copper layer , and wherein when an average crystal grain size of copper crystals in the entire region P is D2, a value of D2/D1 is 0.5 or more and 2.0 or less. a ceramic layer ; a copper layer ; and a brazing material layer present between the ceramic layer and the copper layer , wherein when a region having a length of 1,700 um in a long-side direction is a region P on a cut surface of the ceramic-copper composite obtained when the ceramic-copper composite is cut at a plane perpendicular to a main surface of the ceramic-copper composite, an average crystal grain size D1 of copper crystals at least partially present in a region P1 is 30 um or more and 100 μm or less, wherein the average crystal grain size D1 is measured using the Electron Backscattering Diffraction method; wherein the region P1 is a region within the region P extending 50 um in thickness direction of the ceramic-copper composite from an interface between the ceramic layer and the brazing material layer towards the copper layer , and wherein when an average crystal grain size of copper crystals in the entire region P is D2, a value of D2/D1 is 0.5 or more and 2.0 or less.