mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a radiation window for an X-ray measurement apparatus, comprising: - producing an etch stop layer on a surface of a carrier , - using a thin film technique to produce a mesh layer on an opposite side of said etch stop layer than said carrier , wherein said etch stop layer is arranged to keep an etching agent from affecting said mesh layer , - attaching the combined structure comprising said carrier , said etch stop layer , and said mesh layer to a region around an opening in a support structure with said mesh layer facing said support structure , and - etching away said carrier such that the etch stop layer alone constitutes the basic continuous layer of the radiation window foil. - producing an etch stop layer on a surface of a carrier , - using a thin film technique to produce a mesh layer on an opposite side of said etch stop layer than said carrier , wherein said etch stop layer is arranged to keep an etching agent from affecting said mesh layer , - attaching the combined structure comprising said carrier , said etch stop layer , and said mesh layer to a region around an opening in a support structure with said mesh layer facing said support structure , and - etching away said carrier such that the etch stop layer alone constitutes the basic continuous layer of the radiation window foil.
A first module for a fluid cooling system of a personal computer (PC), comprising a control unit , a first communication unit , a pump for a cooling fluid, and a first heat exchanger , wherein the first communication unit is configured to receive signals from at least one second module , wherein the second module is connected or connectable to a GPU and/or CPU of the PC to be cooled, wherein the signals comprise an identification feature of the second module , wherein the control unit , on the basis of the identification feature, is designed for - identifying the second module , - checking whether the second module is system-compatible or authorized, and - switching on the pump and/or the first heat exchanger depending on the presence of the system-compatible or authorized second module . - identifying the second module , - checking whether the second module is system-compatible or authorized, and - switching on the pump and/or the first heat exchanger depending on the presence of the system-compatible or authorized second module .
Mineral sealing mortar to be applied at the plinth of a building for moisture protection, the sealing mortar comprising in a dry state: 60 wt% to 70 wt% of aggregates, 10 wt% to 25 wt% of a mineral binder, 0.1 wt% to 1.0 wt% of fibers, 0.01 wt% to 1.0 wt% of silicates as rheological agents, 0.015 wt% to 1.0 wt% of modified starch, 0.3 wt% to 0.7 wt% of a hydrophobing agent, and 5 wt% to 9 wt% of an adhesion agent. 60 wt% to 70 wt% of aggregates, 10 wt% to 25 wt% of a mineral binder, 0.1 wt% to 1.0 wt% of fibers, 0.01 wt% to 1.0 wt% of silicates as rheological agents, 0.015 wt% to 1.0 wt% of modified starch, 0.3 wt% to 0.7 wt% of a hydrophobing agent, and 5 wt% to 9 wt% of an adhesion agent.
A method for protecting the surface of a liquid comprising the step of: applying a film forming composition to the liquid surface at a rate of 0.3 to 90 g/m 2 , wherein the film forming composition having a viscosity from 5·10 -5 to 10 -3 m 2 s -1 (50 to 1000 centistokes) at the ambient temperature comprises 5 to 95 wt% silicone polymer being a polyorganosiloxane being a polymer of dimethylsiloxane; 5 to 75 wt% of carrier material, wherein the carrier material is mineral oil and/or vegetable oil; and 0.2 to 20 wt% surfactant, the film forming a substantially continuous protective film across the surface of the liquid. applying a film forming composition to the liquid surface at a rate of 0.3 to 90 g/m 2 , wherein the film forming composition having a viscosity from 5·10 -5 to 10 -3 m 2 s -1 (50 to 1000 centistokes) at the ambient temperature comprises 5 to 95 wt% silicone polymer being a polyorganosiloxane being a polymer of dimethylsiloxane; 5 to 75 wt% of carrier material, wherein the carrier material is mineral oil and/or vegetable oil; and 0.2 to 20 wt% surfactant, 5 to 95 wt% silicone polymer being a polyorganosiloxane being a polymer of dimethylsiloxane; 5 to 75 wt% of carrier material, wherein the carrier material is mineral oil and/or vegetable oil; and 0.2 to 20 wt% surfactant, the film forming a substantially continuous protective film across the surface of the liquid.
A method, comprising: receiving a plurality of sensor values from an Inertial Measurement Unit (IMU) ; loading the plurality of sensor values and a plurality of true sensor values into a deep learning algorithm; and training the deep learning algorithm to enhance the accuracy of the output signals of the IMU utilizing the plurality of true sensor values, characterized in that the receiving of the plurality of sensor values comprises receiving one or more raw output signals from one or more gyroscopes , one or more accelerometers and one or more non-motion sensors . receiving a plurality of sensor values from an Inertial Measurement Unit (IMU) ; loading the plurality of sensor values and a plurality of true sensor values into a deep learning algorithm; and training the deep learning algorithm to enhance the accuracy of the output signals of the IMU utilizing the plurality of true sensor values, characterized in that the receiving of the plurality of sensor values comprises receiving one or more raw output signals from one or more gyroscopes , one or more accelerometers and one or more non-motion sensors .
Covering, such as a floor covering, wall covering or ceiling covering, said covering comprising: - a surface layer ; - a substrate layer attached to said surface layer , said substrate layer optionally comprising one or more reinforced thermoplastic layers; - a backing layer on the bottom side of said substrate layer , opposite to said surface layer ; - a textile layer attached to the bottom side of said backing layer , optionally through a contact layer; whereby said covering further comprises a coating applied to the bottom side of said textile layer wherein the coating has a basis weight of 100 gsm to 1000 gsm and penetrates at least 50% of the thickness of the textile layer and whereby said surface layer comprises a wear layer situated on top of a decorative layer. - a surface layer ; - a substrate layer attached to said surface layer , said substrate layer optionally comprising one or more reinforced thermoplastic layers; - a backing layer on the bottom side of said substrate layer , opposite to said surface layer ; - a textile layer attached to the bottom side of said backing layer , optionally through a contact layer;
Fire column, the flame of which is fed by a fuel container , in particular for bio-ethanol, and is surrounded by an outer casing , wherein supply air flows in largely axially in the lower region of the outer casing via a plurality of guide elements and is preferably set in a helical rotation to form a vortex flame, wherein the outer casing is placed over the guide elements characterized in that the inner wall of the outer casing engages around the guide elements with a small clearance fit and the outer edges of the guide elements are enclosed, so that no separate component is required to delimit the individual air channels between the guide elements and a transfer of supply air from one air channel to the adjacent air channel is largely prevented, however, an easy lift-off of the outer casing in a vertical direction is still possible, and that the outer casing rests at its lower end face on several pins.
Use of a container for storing a biomaterial for reducing sample loss of a biomarker(s) contained in the biomaterial, which comprises a coating containing a copolymer which contains a recurring unit which contains a group represented by the following formula (a) and a recurring unit which contains a group represented by the following formula (b): wherein U a1 , U a2 , U b1 , U b2 and U b3 each independently represent a hydrogen atom or a linear or branched alkyl group having 1 to 5 carbon atoms, and An - represents an anion selected from the group consisting of a halide ion, an inorganic acid ion, a hydroxide ion and an isothiocyanate ion, provided with at least a part of a surface of the container. a coating containing a copolymer which contains a recurring unit which contains a group represented by the following formula (a) and a recurring unit which contains a group represented by the following formula (b): wherein U a1 , U a2 , U b1 , U b2 and U b3 each independently represent a hydrogen atom or a linear or branched alkyl group having 1 to 5 carbon atoms, and An - represents an anion selected from the group consisting of a halide ion, an inorganic acid ion, a hydroxide ion and an isothiocyanate ion,
A leak detecting arrangement for packages (P3), which packages (P3) contain a test gas, which leak detecting arrangement is adapted to be located adjacent a transport means for transporting the packages (P3), the arrangement comprising a testing station in which a package is located by the transport means , wherein the packages (P3) are arranged to have an internal pressure above the ambient pressure when located in the testing station , the arrangement comprises a gas sensor located in gas communication with the ambient air surrounding a portion of the package to be tested, wherein the sensor is arranged to detect the concentration of test gas in said ambient air and transmit a signal representing said concentration, an electronic control unit (ECU) arranged to receive the signal from the gas sensor , wherein the electronic control unit (ECU) is arranged to determine an instantaneous slope value for the concentration of test gas in the ambient, to monitor instantaneous slope values over time and to generate a fault signal if an instantaneous slope value exceeds the preceding monitored instantaneous slope value, and a continuously operated suction means arranged to draw ambient air past a seal on the packet (P3) to be tested, characterized in that the continuously operated suction means is provided with a flow guide means conforming to the shape of the seal , where said flow guide means comprises force applying means arranged to contact the package (P3) on opposite sides and apply a predetermined pressure or force to the package (P3), adjacent the seal on the upper portion of the package (P3) below the seal to be tested, when the package (P3) is located in the testing station .
Method for tracking a target object by means of a camera system of a motor vehicle , wherein a sequence of images of an environmental region of the motor vehicle is provided by a camera of the camera system , and the tracking is effected by an image processing device based on the sequence of the images , including the steps of: - detecting the target object in an image of the sequence and tracking the target object over subsequent images of the sequence using a tracking algorithm by the image processing device, - acquiring brightness values of pixels of the target object in the respective images , - detecting a change of a brightness of the depicted target object based on the brightness values, and - if the change of the brightness exceeds a predetermined amount, manipulating at least one parameter of the tracking algorithm and/or at least one parameter of the camera due to the detection of the change , wherein an average value of the brightness values of the pixels of the target object is respectively determined to each image , a ratio of the respective average value to a current integration time of an image sensor of the camera is respectively determined to each image and the change of the brightness is detected based on the ratios . - detecting the target object in an image of the sequence and tracking the target object over subsequent images of the sequence using a tracking algorithm by the image processing device, - acquiring brightness values of pixels of the target object in the respective images , - detecting a change of a brightness of the depicted target object based on the brightness values, and - if the change of the brightness exceeds a predetermined amount, manipulating at least one parameter of the tracking algorithm and/or at least one parameter of the camera due to the detection of the change , wherein an average value of the brightness values of the pixels of the target object is respectively determined to each image , a ratio of the respective average value to a current integration time of an image sensor of the camera is respectively determined to each image and the change of the brightness is detected based on the ratios .
Two components made of plastics material, said components comprising a first wall and a second wall , respectively, which have respective edges that, when the two components are assembled, are arranged one against the other, wherein said components further comprise a connection device for interconnecting the two components , said connection device comprising at least one clip arranged on the first wall and extending beyond the edge of the first wall , and at least one tooth arranged on the second wall and designed to be snap engaged by the clip when the two components are in the assembled state, said components being characterized in that said at least one tooth comprises at least one first tooth and at least one second tooth designed to be snap engaged by the clip when the two components are in the pre-assembled state and assembled state, respectively, said first tooth being closer than the second tooth to the edge of the second wall such that, when pre-assembled, the two components are connected to one another with the edges of the first wall and of the second wall being spaced apart from one another, said first tooth having an inclined locking face for facilitating decoupling of the two components from the pre-assembled state. wherein said components further comprise a connection device for interconnecting the two components , said connection device comprising at least one clip arranged on the first wall and extending beyond the edge of the first wall , and at least one tooth arranged on the second wall and designed to be snap engaged by the clip when the two components are in the assembled state, said components being characterized in that said at least one tooth comprises at least one first tooth and at least one second tooth designed to be snap engaged by the clip when the two components are in the pre-assembled state and assembled state, respectively, said first tooth being closer than the second tooth to the edge of the second wall such that, when pre-assembled, the two components are connected to one another with the edges of the first wall and of the second wall being spaced apart from one another, said first tooth having an inclined locking face for facilitating decoupling of the two components from the pre-assembled state.
A microcatheter for delivery of embolic fluids (E), the microcatheter comprising: an outer member dimensioned for insertion within a blood vessel adjacent an embolization site, the outer member defining a first longitudinal lumen ; an inner member selectively positionable within the first longitudinal lumen of the outer member , the inner member defining a second longitudinal lumen and having a delivery port in fluid communication with the second longitudinal lumen for passage and delivery of embolic fluids (E) toward the embolization site, characterized in that : the outer member includes an inflatable balloon disposed on an exterior wall surface thereof adjacent the delivery port, the inflatable balloon dimensioned to expand and engage an interior wall portion of the blood vessel to at least partially isolate the embolization site, wherein the inflatable balloon is in fluid communication with the first longitudinal lumen of the outer member via one or more inflation holes defined by the outer member , and is adapted to inflate upon passage of inflation fluids through the first longitudinal lumen; and the microcatheter further comprises: a valve disposed within the outer member distal to the one or more inflation holes, the valve dimensioned to establish a substantial seal about the inner member within the first longitudinal lumen , to minimize entry of the embolic fluids (E) within the first longitudinal lumen of the outer member subsequent to delivery thereof toward the embolization site. an outer member dimensioned for insertion within a blood vessel adjacent an embolization site, the outer member defining a first longitudinal lumen ; an inner member selectively positionable within the first longitudinal lumen of the outer member , the inner member defining a second longitudinal lumen and having a delivery port in fluid communication with the second longitudinal lumen for passage and delivery of embolic fluids (E) toward the embolization site, characterized in that : the outer member includes an inflatable balloon disposed on an exterior wall surface thereof adjacent the delivery port, the inflatable balloon dimensioned to expand and engage an interior wall portion of the blood vessel to at least partially isolate the embolization site, wherein the inflatable balloon is in fluid communication with the first longitudinal lumen of the outer member via one or more inflation holes defined by the outer member , and is adapted to inflate upon passage of inflation fluids through the first longitudinal lumen; and the microcatheter further comprises: a valve disposed within the outer member distal to the one or more inflation holes, the valve dimensioned to establish a substantial seal about the inner member within the first longitudinal lumen , to minimize entry of the embolic fluids (E) within the first longitudinal lumen of the outer member subsequent to delivery thereof toward the embolization site.
A control system , wherein, the control system is configured to control a motor , and comprises a central processing module and a drive control module ; when the motor is running, the drive control module is configured to sample a voltage of a phase coil (a, b) of the motor , to which no voltage is applied, during a period (T a0 , T b0 ) in which no voltage is applied to any phase coil of the motor , and convert the sampled voltage of the phase coil (a, b) of the motor , to which no voltage is applied, into a digital signal; the control system is configured to store the digital signal, and update the digital signal in real time during the period (T a0 , T b0 ) in which no voltage is applied to any phase coil of the motor ; the central processing module is configured read the digital signal, and the control system is configured to convert the digital signal into a conversion value according to an abnormality probability of the motor running abnormally; and the central processing module is configured to sequentially accumulate the conversion values to obtain an accumulated value, and determine an operating state of the motor according to a relationship between the accumulated value and a preset threshold. when the motor is running, the drive control module is configured to sample a voltage of a phase coil (a, b) of the motor , to which no voltage is applied, during a period (T a0 , T b0 ) in which no voltage is applied to any phase coil of the motor , and convert the sampled voltage of the phase coil (a, b) of the motor , to which no voltage is applied, into a digital signal; the control system is configured to store the digital signal, and update the digital signal in real time during the period (T a0 , T b0 ) in which no voltage is applied to any phase coil of the motor ; the central processing module is configured read the digital signal, and the control system is configured to convert the digital signal into a conversion value according to an abnormality probability of the motor running abnormally; and the central processing module is configured to sequentially accumulate the conversion values to obtain an accumulated value, and determine an operating state of the motor according to a relationship between the accumulated value and a preset threshold.
A compound of formula IVa, wherein three of R 1a to R 4a represent hydrogen and the groups R 1a to R 4a not being hydrogen represent a group CH 2 -O-R 6 or CH 2 -O-C(=O)-R 7 with R 6 or R 7 being a linear or branched alkyl group, alkoxy group, polyalkoxy group or alkenyl group with at maximum 30 carbon atoms.
A rail car comprising: an elongated floor ; an end frame at a first end of the floor ; a draft sill extending downward away from a bottom of the floor ; and a crash energy management (CEM) system comprising: a coupler plate coupled to the draft sill and extending downward away from the bottom of the floor between the draft sill and the first end of the floor ; and an elongated coupler assembly extending from the coupler plate in a direction of the first end of the floor ; characterized in that the crash energy management (CEM) system further comprises at least one cable connected in tension between the coupler plate and the end frame the at least one cable being operative to transfer loads between the draft sill and the end frame . an elongated floor ; an end frame at a first end of the floor ; a draft sill extending downward away from a bottom of the floor ; and a crash energy management (CEM) system comprising: a coupler plate coupled to the draft sill and extending downward away from the bottom of the floor between the draft sill and the first end of the floor ; and an elongated coupler assembly extending from the coupler plate in a direction of the first end of the floor ; characterized in that the crash energy management (CEM) system further comprises at least one cable connected in tension between the coupler plate and the end frame the at least one cable being operative to transfer loads between the draft sill and the end frame . a coupler plate coupled to the draft sill and extending downward away from the bottom of the floor between the draft sill and the first end of the floor ; and an elongated coupler assembly extending from the coupler plate in a direction of the first end of the floor ; characterized in that the crash energy management (CEM) system further comprises at least one cable connected in tension between the coupler plate and the end frame the at least one cable being operative to transfer loads between the draft sill and the end frame .
A method of operating an electrical system including a first 12V battery (250-1), a second 12V battery (250-2) coupled in series with the first 12V battery, and a battery equalizer coupled to the first 12V battery and the second 12V battery and configured to supply an equalizing current to the first 12V battery, the method being characterized by comprising the steps of: monitoring a level of the equalizing current; determining , based on monitoring of the level of the equalizing current, that the equalizing current is saturated; and reducing a level of 12V current supplied to a load at a positive terminal of the first 12V battery (250-1) in response to determining that the equalizing current is saturated. monitoring a level of the equalizing current; determining , based on monitoring of the level of the equalizing current, that the equalizing current is saturated; and reducing a level of 12V current supplied to a load at a positive terminal of the first 12V battery (250-1) in response to determining that the equalizing current is saturated.