mhurhangee/patent-ind-claim-en huggingface dataset:
A radiation curable resin composition comprising: (A) metal oxide particles, which are alkaline earth metal oxide particles exhibiting an average particle diameter of 10 to 1000 nm, which is determined according to the method as disclosed in the description; (B) at least one photoinitiator or any mixture thereof; (C) at least one acrylate or methacrylate component with a ClogP higher than 2 or any mixture thereof, which is a 1,n-diol di(meth)acrylate of a diol of the formula HO-(CH 2 ) n -OH, whereby n is higher than 3, and wherein the ClogP is determined by calculation using the computer program Osiris Property Explorer; (D) at least one monofunctional acrylate or methacrylate diluent component or any mixture thereof; (E) at least one acrylate or methacrylate component with functionality equal to 3 or any mixture thereof; wherein Mica is excluded from the group of (A) metal oxide particles. (A) metal oxide particles, which are alkaline earth metal oxide particles exhibiting an average particle diameter of 10 to 1000 nm, which is determined according to the method as disclosed in the description; (B) at least one photoinitiator or any mixture thereof; (C) at least one acrylate or methacrylate component with a ClogP higher than 2 or any mixture thereof, which is a 1,n-diol di(meth)acrylate of a diol of the formula HO-(CH 2 ) n -OH, whereby n is higher than 3, and wherein the ClogP is determined by calculation using the computer program Osiris Property Explorer; (D) at least one monofunctional acrylate or methacrylate diluent component or any mixture thereof; (E) at least one acrylate or methacrylate component with functionality equal to 3 or any mixture thereof; wherein Mica is excluded from the group of (A) metal oxide particles.
A thermodynamic system, comprising: one or more walls forming a sealed cavity that contains a bi-phase fluid, the bi-phase fluid having at least a vapor fraction and a liquid fraction; a plurality of ribs forming channels that extend from an evaporator region of the sealed cavity to a condenser region of the sealed cavity , the evaporator region for absorbing heat into the bi-phase fluid to convert the liquid fraction into the vapor fraction, the condenser region for dissipating the heat out of the bi-phase fluid to convert the vapor fraction into the liquid fraction; and a porous microstructure sheet (202; 700) disposed over the plurality of ribs to form a boundary between a liquid flow path, that is defined by the channels , and a vapor flow path, wherein the porous microstructure sheet (202; 700) includes a plurality of pores (216; 702) characterised in that the plurality of pores (216; 702) individually include an interior corner, that is formed by an intersection between two interior walls that intersect, wherein the liquid fraction forms a thin-film evaporation region within the interior corner at a liquid-vapor boundary between the liquid fraction and the vapor fraction, wherein the liquid-vapor boundary resides within individual pores of the porous microstructure sheet (202; 700). one or more walls forming a sealed cavity that contains a bi-phase fluid, the bi-phase fluid having at least a vapor fraction and a liquid fraction; a plurality of ribs forming channels that extend from an evaporator region of the sealed cavity to a condenser region of the sealed cavity , the evaporator region for absorbing heat into the bi-phase fluid to convert the liquid fraction into the vapor fraction, the condenser region for dissipating the heat out of the bi-phase fluid to convert the vapor fraction into the liquid fraction; and a porous microstructure sheet (202; 700) disposed over the plurality of ribs to form a boundary between a liquid flow path, that is defined by the channels , and a vapor flow path, wherein the porous microstructure sheet (202; 700) includes a plurality of pores (216; 702) characterised in that
A sensor comprising a field effect transistor comprising: • an active region comprising: ∘ a source region and a drain region defining a source-drain axis, ∘ a channel region between the source region and the drain region, • a dielectric region on the channel region , comprising at least a first zone on a first portion of the channel region and a second zone on a second portion of the channel region , the first zone measuring from 1 to 100 nm in the direction of the source-drain axis and being adapted to create a different threshold voltage for the first portion of the channel region than for the second portion of the channel region , wherein the second zone either surround the first zone or is split in two by the first zone, and wherein a length of the first zone is from 5% to 35% of a length of the channel region , and • a fluidic gate region to which a top surface of the dielectric region is exposed. • an active region comprising: ∘ a source region and a drain region defining a source-drain axis, ∘ a channel region between the source region and the drain region, ∘ a source region and a drain region defining a source-drain axis, ∘ a channel region between the source region and the drain region, • a dielectric region on the channel region , comprising at least a first zone on a first portion of the channel region and a second zone on a second portion of the channel region , the first zone measuring from 1 to 100 nm in the direction of the source-drain axis and being adapted to create a different threshold voltage for the first portion of the channel region than for the second portion of the channel region , wherein the second zone either surround the first zone or is split in two by the first zone, and wherein a length of the first zone is from 5% to 35% of a length of the channel region , and • a fluidic gate region to which a top surface of the dielectric region is exposed.
Method for adjusting a beam direction (R) of a headlight of a vehicle having at least one front wheel and at least one rear wheel , comprising the steps: a) detection of a front-wheel steering angle (a) of the at least one front wheel ; b) detection of a rear-wheel steering angle (b) of the at least one rear wheel ; c) defining a beam direction (R) of the headlight depending on the front-wheel steering angle (a) and the rear-wheel steering angle (b), and d) adjusting the beam direction (R) of the headlight to the defined beam direction (R), wherein step c) comprises the following sub-steps: c1) determining a correction value from the rear-wheel steering angle (b); c2) determining a fictitious front-wheel steering angle from the front-wheel steering angle (a) and the correction value; and c3) defining the beam direction (R) of the headlight depending on the fictitious front-wheel steering angle. a) detection of a front-wheel steering angle (a) of the at least one front wheel ; b) detection of a rear-wheel steering angle (b) of the at least one rear wheel ; c) defining a beam direction (R) of the headlight depending on the front-wheel steering angle (a) and the rear-wheel steering angle (b), and d) adjusting the beam direction (R) of the headlight to the defined beam direction (R), wherein step c) comprises the following sub-steps: c1) determining a correction value from the rear-wheel steering angle (b); c2) determining a fictitious front-wheel steering angle from the front-wheel steering angle (a) and the correction value; and c3) defining the beam direction (R) of the headlight depending on the fictitious front-wheel steering angle. c1) determining a correction value from the rear-wheel steering angle (b); c2) determining a fictitious front-wheel steering angle from the front-wheel steering angle (a) and the correction value; and c3) defining the beam direction (R) of the headlight depending on the fictitious front-wheel steering angle.
Method for carrying out construction measures, in particular foundation engineering measures, on a construction site with a number n of construction machines , in particular foundation engineering machines, on which attachment components , in particular construction tools, are fixed in a releasable and changing manner, wherein a number N of attachment components are kept on the construction site , wherein N > n > 2, characterized in that in a computer unit the number n and the type of construction machines and the number N and the type of attachment components present on a construction site are saved, in that the computer unit has a data connection to the individual construction machines and queries information on the actuators of the individual construction machines , in that depending on the information received on the actuators the computer unit ascertains which attachment component is fixed on the individual construction machine , and in that the computer unit ascertains and indicates which attachment components are freely available on the construction site . on which attachment components , in particular construction tools, are fixed in a releasable and changing manner, wherein a number N of attachment components are kept on the construction site , wherein N > n > 2, characterized in that in a computer unit the number n and the type of construction machines and the number N and the type of attachment components present on a construction site are saved, in that the computer unit has a data connection to the individual construction machines and queries information on the actuators of the individual construction machines , in that depending on the information received on the actuators the computer unit ascertains which attachment component is fixed on the individual construction machine , and in that the computer unit ascertains and indicates which attachment components are freely available on the construction site .
A method for controlling a cooking apparatus comprising a cooking chamber , a microwave-heating unit to radiate microwaves to the cooking chamber, a convection-heating unit to supply hot air to the cooking chamber, and a grill-heating unit to supply radiant heat to the cooking chamber, the method comprising: receiving a fry-cooking command; performing, during a first time, a first cooking stage including activating the microwave-heating unit and activating one of the convection-heating unit and the grill-heating unit; and performing, during a second time, a second cooking stage including deactivating the microwave-heating unit and activating the grill-heating unit and the convection-heating unit, wherein the first cooking stage and the second cooking stage are performed are performed in the order of the first cooking stage and then the second cooking stage in response to receiving the fry-cooking command; wherein the performing of the second cooking stage includes repeating turning on and turning off the grill-heating unit and the convection-heating unit after the temperature of the cooking chamber reaches a preset target temperature in order to maintain the temperature of the cooking chamber at the target temperature. receiving a fry-cooking command; performing, during a first time, a first cooking stage including activating the microwave-heating unit and activating one of the convection-heating unit and the grill-heating unit; and performing, during a second time, a second cooking stage including deactivating the microwave-heating unit and activating the grill-heating unit and the convection-heating unit, wherein the first cooking stage and the second cooking stage are performed are performed in the order of the first cooking stage and then the second cooking stage in response to receiving the fry-cooking command; wherein the performing of the second cooking stage includes repeating turning on and turning off the grill-heating unit and the convection-heating unit after the temperature of the cooking chamber reaches a preset target temperature in order to maintain the temperature of the cooking chamber at the target temperature.
An optical measurement device configured for connection to an industrial network , the industrial network functioning to synchronize time between a master (1; 1a) device and a slave device (3; 3-1, 3-2, 3-3; 4), the optical measurement device comprising: an interface module configured to receive a synchronization signal transmitted on the industrial network from the master device within a fixed communication cycle; and a measurement unit configured to perform optical measurements in a measurement cycle; wherein the measurement unit is configured to synchronize the measurement cycle with the communication cycle in accordance with the synchronization signal received by the interface module, the measurement cycle includes: (i) illumination and capturing image; (ii) detecting light and receiving a position; (iii) computing measurement values; and (iv) outputting a measurement result, and the measurement unit is configured to send the measurement result to the master device during the communication cycle next to the measurement cycle. an interface module configured to receive a synchronization signal transmitted on the industrial network from the master device within a fixed communication cycle; and a measurement unit configured to perform optical measurements in a measurement cycle; wherein the measurement unit is configured to synchronize the measurement cycle with the communication cycle in accordance with the synchronization signal received by the interface module, the measurement cycle includes: (i) illumination and capturing image; (ii) detecting light and receiving a position; (iii) computing measurement values; and (iv) outputting a measurement result, and the measurement unit is configured to send the measurement result to the master device during the communication cycle next to the measurement cycle.
A packaging comprising a PET bottle and a first sleeve made of a shrink film which rests against the PET bottle and at least partially covers a lateral surface of the PET bottle , the PET bottle having cross sections that have different circumferential lengths along a main axis , a circumferential length of the largest cross section being greater than the circumferential length of the smallest cross section at least by a factor of 2.5, at least one second sleeve made of a shrink film being provided, the first sleeve covering the lateral surface in the region of the largest cross section and the second sleeve covering the lateral surface in the region of the smallest cross section, characterized in that the first sleeve and the second sleeve each have a shrinkage ratio of less than 2.5:1.
A method of imaging sub-surface features of a sample , the method comprising the steps of: providing a scanning probe microscope (SPM), the SPM including a probe having a cantilever bearing a tip; providing an ultrasonic source that directs ultrasonic energy into the sample , wherein providing an ultrasonic source includes providing a ultrasonic transducer focusing generated ultrasonic waves into a section of the sample at a first position; coupling the ultrasonic energy from the ultrasonic source into said section of the sample at the first position, wherein high intensity ultrasonic wave is launched into the sample at frequency f 1 so that harmonic distortion create harmonics at frequencies nf 2 , when n is an integer multiple, wherein f 2 is the frequency of an additional ultrasonic oscillating signal applied to the probe ; using the probe to detect an interaction between the incident ultrasonic energy and a sub-surface feature of the sample , wherein amplified SPM cantilever detection of a selected harmonic is possible by arranging nf 2 - f 1 ≈ f 0 , where f 0 is the cantilever resonant frequency; and successively moving at least one of the sample and the ultrasonic source with a translation stage to generate relative motion between the ultrasonic source and the sample so as to couple ultrasonic energy into different sections of the sample . providing a scanning probe microscope (SPM), the SPM including a probe having a cantilever bearing a tip; providing an ultrasonic source that directs ultrasonic energy into the sample , wherein providing an ultrasonic source includes providing a ultrasonic transducer focusing generated ultrasonic waves into a section of the sample at a first position; coupling the ultrasonic energy from the ultrasonic source into said section of the sample at the first position, wherein high intensity ultrasonic wave is launched into the sample at frequency f 1 so that harmonic distortion create harmonics at frequencies nf 2 , when n is an integer multiple, wherein f 2 is the frequency of an additional ultrasonic oscillating signal applied to the probe ; using the probe to detect an interaction between the incident ultrasonic energy and a sub-surface feature of the sample , wherein amplified SPM cantilever detection of a selected harmonic is possible by arranging nf 2 - f 1 ≈ f 0 , where f 0 is the cantilever resonant frequency; and successively moving at least one of the sample and the ultrasonic source with a translation stage to generate relative motion between the ultrasonic source and the sample so as to couple ultrasonic energy into different sections of the sample .
Flush-mounted LED luminaire for electrical and mechanical connection to a commercially available flush-mounted device box, comprising a device base having a power supply unit/converter , at least one LED module comprising at least one LED , and a connection unit for mains lines, and comprising a luminaire cover having at least one light outlet , characterized • in that the device base has a heat sink and the at least one LED module is brought into contact thermally with the heat sink , and • in that the device base has at least one connection device for connecting the at least one LED module comprising at least one LED , wherein the connection device is embodied in the form of one plug connector for contacting electrical contacts of one LED module or a plurality of plug connectors for contacting a plurality of LED modules . • in that the device base has a heat sink and the at least one LED module is brought into contact thermally with the heat sink , and • in that the device base has at least one connection device for connecting the at least one LED module comprising at least one LED , wherein the connection device is embodied in the form of one plug connector for contacting electrical contacts of one LED module or a plurality of plug connectors for contacting a plurality of LED modules .
A tilting apparatus for emptying materials, preferably bulk material, out of railcars , having a tilting frame which is rotatable about an axis of rotation (D), a platform , connected to the tilting frame , for receiving at least one railcar , a clamping arm attached to the tilting frame in a rotatable manner, a locking device for preventing a relative movement between the tilting frame and the clamping arm , the locking device forming a pin or a latching connection and a bracket which is attached to the clamping arm such that, in a tilted position of the tilting apparatus , in which the tilting frame has been rotated about the axis of rotation, it lies at least partially against an upper edge of at least one side wall of the railcar , characterized in that a hydraulic cylinder is attached to the bracket such that it at least partially compensates for tensions in the tilting apparatus , in particular in the locking device , that arise during a tilting operation, wherein the hydraulic cylinder is arranged between the bracket and the clamping arm . a tilting frame which is rotatable about an axis of rotation (D), a platform , connected to the tilting frame , for receiving at least one railcar , a clamping arm attached to the tilting frame in a rotatable manner, a locking device for preventing a relative movement between the tilting frame and the clamping arm , the locking device forming a pin or a latching connection and a bracket which is attached to the clamping arm such that, in a tilted position of the tilting apparatus , in which the tilting frame has been rotated about the axis of rotation, it lies at least partially against an upper edge of at least one side wall of the railcar , characterized in that a hydraulic cylinder is attached to the bracket such that it at least partially compensates for tensions in the tilting apparatus , in particular in the locking device , that arise during a tilting operation, wherein the hydraulic cylinder is arranged between the bracket and the clamping arm .
Serrapeptase for use in the treatment of deep endometriosis.
Apparatus for manufacturing a three-dimensional moulded article by means of material application in layers S n with n=1 to N, having - at least one material dispensing device for applying material that can be solidified physically or chemically to a printing substrate or a solidified layer S n of the moulded article located thereon; - a drive device for positioning the printing substrate and the at least one material dispensing device relative to each other; - a control device having a data memory , for storing image data of the three-dimensional moulded article , wherein the control device has a control connection to the drive device and the at least one material dispensing device ; - a monitoring device for checking the layers S n of the three-dimensional moulded article , wherein an evaluation device follows the monitoring device ; - a material removal device , wherein the evaluation device and the material removal device have a control connection to the control device , and the material dispensing device is followed by a levelling device for levelling the respectively applied layer S n , characterized in that the evaluation device is designed to determine a layer S n with n=x in which at least one defect has been detected by the monitoring device , to check the layers S n following the defective layer S x with n=x+1, x+2... for a defective geometry change of the moulded article which exceeds a predetermined dimension, to generate an error signal for the layer S x with a defective geometry change of the following layers Sn with n=x+1, x+2... and to forward the error signal generated for this first of the defective layers S x to the control device ; in that the material removal device is configured to remove the material of a subregion (T) of the three-dimensional moulded article from the last printed layer S N as far as the first of the defective layers S x for which an error signal has been generated, wherein the material removal device is designed in such a way that, during the removal of the material, complete layers S n can be removed. - at least one material dispensing device for applying material that can be solidified physically or chemically to a printing substrate or a solidified layer S n of the moulded article located thereon; - a drive device for positioning the printing substrate and the at least one material dispensing device relative to each other; - a control device having a data memory , for storing image data of the three-dimensional moulded article , wherein the control device has a control connection to the drive device and the at least one material dispensing device ; - a monitoring device for checking the layers S n of the three-dimensional moulded article , wherein an evaluation device follows the monitoring device ; - a material removal device , wherein the evaluation device and the material removal device have a control connection to the control device , and the material dispensing device is followed by a levelling device for levelling the respectively applied layer S n ,