mhurhangee/patent-ind-claim-en huggingface dataset:
A measuring device for determining a filling level and/or a limit level in a container by means of radar, comprising: a housing with an electronic sensor circuitry arranged therein for detecting a measurement variable, a battery for supplying power to the electronic sensor circuitry, a magnetic switch , a magnet for actuating the magnetic switch, an adhesive layer , and a protective film for covering the adhesive layer; wherein the adhesive layer is arranged on the outside of the housing and is configured for attaching the measuring device to a desired measurement location ; wherein the protective film is bonded to the magnet such that peeling the protective film from the adhesive layer results in removal of the magnet from the housing; wherein the measuring device is configured such that removal of the magnet from the housing switches the magnetic switch from a first switch state to a second switch state; wherein, in the first switch state, at least a portion of the electronic sensor circuitry is not powered by the battery; and wherein the at least portion of the electronic sensor circuitry in the second switch state is powered by the battery. a housing with an electronic sensor circuitry arranged therein for detecting a measurement variable, a battery for supplying power to the electronic sensor circuitry, a magnetic switch , a magnet for actuating the magnetic switch, an adhesive layer , and a protective film for covering the adhesive layer; wherein the adhesive layer is arranged on the outside of the housing and is configured for attaching the measuring device to a desired measurement location ; wherein the protective film is bonded to the magnet such that peeling the protective film from the adhesive layer results in removal of the magnet from the housing; wherein the measuring device is configured such that removal of the magnet from the housing switches the magnetic switch from a first switch state to a second switch state; wherein, in the first switch state, at least a portion of the electronic sensor circuitry is not powered by the battery; and wherein the at least portion of the electronic sensor circuitry in the second switch state is powered by the battery.
Method for fitting light-emitting diodes to electronic printed circuit boards in an SMD construction, wherein the light-emitting diodes are measured and positioned by means of image processing systems, having the following method steps: - the light-emitting diodes are measured before the actual fitting procedure, preferably in the feeding belt and the position of the optically significant elements in respect of the overall component is determined and a first correction factor is calculated therefrom, - reference points available in the printed circuit board are determined and measured for further optical components , - at least one further correction factor is calculated from the reference points for further optical components , - during the fitting procedure, the predetermined mounting positions are corrected with the correction factors and an actual mounting position is determined, - the light-emitting diodes are attached at the actual mounting position, - wherein the further optical components are reflectors and/or lens systems. - the light-emitting diodes are measured before the actual fitting procedure, preferably in the feeding belt and the position of the optically significant elements in respect of the overall component is determined and a first correction factor is calculated therefrom, - reference points available in the printed circuit board are determined and measured for further optical components , - at least one further correction factor is calculated from the reference points for further optical components , - during the fitting procedure, the predetermined mounting positions are corrected with the correction factors and an actual mounting position is determined, - the light-emitting diodes are attached at the actual mounting position, - wherein the further optical components are reflectors and/or lens systems.
An air vent comprising: at least one air redirecting element adapted to redirect an air flow flowing towards an outlet of the air vent , and a mesh panel with vent holes arranged downstream of the at least one air redirecting element to cover the outlet of the air vent , characterized in that the at least one air redirecting element and the mesh panel are adapted such that the air flow is redirected by the at least one air redirecting element in a direction substantially perpendicular to at least a portion of the mesh panel with vent holes in all direction modes of the at least one air redirecting element, wherein the at least one air redirecting element includes at least one rotatable vane , wherein the rotational orientation of the vane defines the direction mode of the at least one air redirecting element. at least one air redirecting element adapted to redirect an air flow flowing towards an outlet of the air vent , and a mesh panel with vent holes arranged downstream of the at least one air redirecting element to cover the outlet of the air vent , characterized in that the at least one air redirecting element and the mesh panel are adapted such that the air flow is redirected by the at least one air redirecting element in a direction substantially perpendicular to at least a portion of the mesh panel with vent holes in all direction modes of the at least one air redirecting element, wherein the at least one air redirecting element includes at least one rotatable vane , wherein the rotational orientation of the vane defines the direction mode of the at least one air redirecting element.
A method of performing a stir function in a blender apparatus with blades, the method including: controlling, by a processor module , a motor of the blender apparatus to provide a sequence of pulsed operations of the blades to a first target speed, each pulse having a speed profile; disabling power to the motor upon reaching the first target speed at a first time; monitoring motor speed until the blades reach a predetermined minimum speed at a second time; commencing a subsequent pulse cycle after a predetermined period; wherein the speed profile for the stir function is dependent on dynamic load provided by ingredients in the blender apparatus , wherein a manual speed setting is used to configure the blender apparatus to operate in the stir function characterized in that the motor is controlled by a soft start profile until the first target speed is reached. controlling, by a processor module , a motor of the blender apparatus to provide a sequence of pulsed operations of the blades to a first target speed, each pulse having a speed profile; disabling power to the motor upon reaching the first target speed at a first time; monitoring motor speed until the blades reach a predetermined minimum speed at a second time; commencing a subsequent pulse cycle after a predetermined period; wherein the speed profile for the stir function is dependent on dynamic load provided by ingredients in the blender apparatus , wherein a manual speed setting is used to configure the blender apparatus to operate in the stir function characterized in that the motor is controlled by a soft start profile until the first target speed is reached.
A method comprising: identifying a plurality of trusted assets, wherein each trusted asset is associated with at least a threshold number of trusted authors; generating a first signature set for a known software application, wherein each signature in the first signature set corresponds to a known asset that is associated with the known software application; generating a second signature set for a subject software application, wherein each signature in the second signature set corresponds to a subject asset that is associated with the subject software application; generating a first filtered signature set based on the first signature set by excluding signatures corresponding to the trusted assets; generating a second filtered signature set based on the second signature set by excluding signatures corresponding to the trusted assets; and generating a similarity rating for the subject application based on a comparison of the first filtered signature set and the second filtered signature set. identifying a plurality of trusted assets, wherein each trusted asset is associated with at least a threshold number of trusted authors; generating a first signature set for a known software application, wherein each signature in the first signature set corresponds to a known asset that is associated with the known software application; generating a second signature set for a subject software application, wherein each signature in the second signature set corresponds to a subject asset that is associated with the subject software application; generating a first filtered signature set based on the first signature set by excluding signatures corresponding to the trusted assets; generating a second filtered signature set based on the second signature set by excluding signatures corresponding to the trusted assets; and generating a similarity rating for the subject application based on a comparison of the first filtered signature set and the second filtered signature set.
A composition for use in the treatment of cancer, comprising one or more agents for use in a CRISPR/Cas genome editing technique targeting a TMEM135-CCDC67 fusion gene present in a cancer, wherein the one or more agents comprise (i) a vector comprising a nucleic acid encoding a Cas protein or a mutant thereof and two guide RNAs (gRNA), wherein one gRNA is complementary to a region within one gene of the TMEM135-CCDC67 fusion gene and a second gRNA is complementary to a region within a second gene of the TMEM135-CCDC67 fusion gene, and (ii) a vector comprising a donor nucleic acid, that when expressed results in cell death, and one or more targeting sequences, wherein the one or more targeting sequences are complementary to one or more sequences of the TMEM135-CCDC67 fusion gene.
An electronic device for a vehicle, the electronic device comprising: a sensor connected to a plurality of displays, and a processor connected to the sensor and the plurality of displays, wherein the processor is configured to, when information indicating that an error occurs in a first display among the plurality of displays is obtained from the sensor, output first information to be output through the first display through a display having higher priority among remaining displays other than the first display, wherein the processor is configured to output the first information through the display having higher priority in a pop-up form corresponding to a driving situation, and wherein the priority of the remaining displays other than the first display is higher for a display closer to the field of vision of the driver. a sensor connected to a plurality of displays, and a processor connected to the sensor and the plurality of displays, wherein the processor is configured to, when information indicating that an error occurs in a first display among the plurality of displays is obtained from the sensor, output first information to be output through the first display through a display having higher priority among remaining displays other than the first display, wherein the processor is configured to output the first information through the display having higher priority in a pop-up form corresponding to a driving situation, and wherein the priority of the remaining displays other than the first display is higher for a display closer to the field of vision of the driver.
A spectrograph optical system including a sample holder configured to hold a sample, coupling optics configured to direct light from the sample to form an input light beam, an aperture selectively positionable in the path of the input light beam downstream of the sample, a slit plate having a selected entrance slit positionable in the optical path of the input light beam downstream of the aperture , a concave diffraction grating positioned to receive at least a portion of the input light beam passing through the selected entrance slit and to diffract the light beam at a wavelength-dependent angle, a detector positioned to receive light diffracted from the concave diffraction grating and configured to generate a signal in response to the light diffracted from the concave diffraction grating , and a controller providing signals to control the optical system, the optical system characterized by : the aperture being a circular field stop aperture mounted in an aperture positioning mechanism configured to selectively position the aperture in the optical path of the input light beam downstream of the sample in response to a signal from the controller to adjust resolution of the optical system ; and the slit plate having a plurality of rectangular entrance slits having different widths arcuately positioned on the slit plate , each configured to be selectively rotated into position in the optical path of the input light beam downstream of the circular aperture by an actuator in response to a signal from the controller . the aperture being a circular field stop aperture mounted in an aperture positioning mechanism configured to selectively position the aperture in the optical path of the input light beam downstream of the sample in response to a signal from the controller to adjust resolution of the optical system ; and the slit plate having a plurality of rectangular entrance slits having different widths arcuately positioned on the slit plate , each configured to be selectively rotated into position in the optical path of the input light beam downstream of the circular aperture by an actuator in response to a signal from the controller .
A method for producing cancer stem cells, comprising: a) transducing cancer cells with a vector expressing Δ133p53β isoform, Δ133p53γ isoform, or both Δ133p53β and Δ133p53γ isoforms; b) culturing transduced cancer cells in a medium supporting expansion of transduced cancer cells; and c) isolating cancer stem cells by means of at least one of the 4 following methods: i) isolation according to CSC-specific cell surface markers; ii) isolation by flow cytometry based on side-population (SP) phenotype by DNA dye exclusion; iii) isolation by flow cytometry based on high aldehyde dehydrogenase (ALDH) activity; and iv) submission to sphere-forming assay and collection of spheres. a) transducing cancer cells with a vector expressing Δ133p53β isoform, Δ133p53γ isoform, or both Δ133p53β and Δ133p53γ isoforms; b) culturing transduced cancer cells in a medium supporting expansion of transduced cancer cells; and c) isolating cancer stem cells by means of at least one of the 4 following methods: i) isolation according to CSC-specific cell surface markers; ii) isolation by flow cytometry based on side-population (SP) phenotype by DNA dye exclusion; iii) isolation by flow cytometry based on high aldehyde dehydrogenase (ALDH) activity; and iv) submission to sphere-forming assay and collection of spheres. i) isolation according to CSC-specific cell surface markers; ii) isolation by flow cytometry based on side-population (SP) phenotype by DNA dye exclusion; iii) isolation by flow cytometry based on high aldehyde dehydrogenase (ALDH) activity; and iv) submission to sphere-forming assay and collection of spheres.
Mini gamma camera based on scintillation crystal technology, comprising: • an interchangeable gamma ray collimation system ; • a gamma ray detector system comprising a scintillation crystal and at least one position sensitive photodetector ; wherein the scintillation crystal transduces energy from the gamma ray, generating visible light photons, which are detected by the photodetector ; • an anti-radiation screen ; • processing electronics that include a standard computer interface, the processing electronics receive the output signals from the photodetector ; and, • an electromagnetic screen ; wherein the scintillation crystal is of the continuous type, the mini gamma camera being characterized in that the scintillation crystal comprises several layers, and in that the gamma ray detector system further comprises a system for focusing the scintillation light comprising several layers of focusers wherein the layers of focusers and scintillators are positioned alternately in the direction in which the gamma rays enter. • an interchangeable gamma ray collimation system ; • a gamma ray detector system comprising a scintillation crystal and at least one position sensitive photodetector ; wherein the scintillation crystal transduces energy from the gamma ray, generating visible light photons, which are detected by the photodetector ; • an anti-radiation screen ; • processing electronics that include a standard computer interface, the processing electronics receive the output signals from the photodetector ; and, • an electromagnetic screen ;
A supporter comprising: a main body ; a pair of main frames connected to the main body ; a pair of straps connected to the pair of main frames , respectively; and a bistable spring which is provided inside each of the pair of the straps and maintained in one of two stable states by a restoring force, wherein the two stable states correspond to different displacements of the bistable spring resulting in a smallest potential energy, wherein the bistable spring has a shape extending straight along the longitudinal direction in a first stable state and has a shape that is bent once in a second stable state, and the shape of the strap is determined according to the shape of the bistable spring . a main body ; a pair of main frames connected to the main body ; a pair of straps connected to the pair of main frames , respectively; and a bistable spring which is provided inside each of the pair of the straps and maintained in one of two stable states by a restoring force, wherein the two stable states correspond to different displacements of the bistable spring resulting in a smallest potential energy, wherein the bistable spring has a shape extending straight along the longitudinal direction in a first stable state and has a shape that is bent once in a second stable state, and the shape of the strap is determined according to the shape of the bistable spring .
A method for collaborative RFID readers, comprising: providing an RFID reader, the RFID reader having a baseband frequency and being a member of a group of participating RFID readers each being synchronized to the baseband frequency, and wherein the RFID reader is assigned an orthogonal code to produce a code division multiple access (CDMA)-encoded signal, and a set of mutually-orthogonal codes for all participating RFID readers is known to the RFID reader; transmitting, using the RFID reader, a CDMA-encoded signal to RFID tags within a reading range of the RFID reader; receiving a response signal from an RFID tag within the reading range, wherein the response signal comprises data encoded with an orthogonal code of an RFID reader of the group of participating RFID readers; and decoding the data of the response signal using the known set of mutually-orthogonal codes. providing an RFID reader, the RFID reader having a baseband frequency and being a member of a group of participating RFID readers each being synchronized to the baseband frequency, and wherein the RFID reader is assigned an orthogonal code to produce a code division multiple access (CDMA)-encoded signal, and a set of mutually-orthogonal codes for all participating RFID readers is known to the RFID reader; transmitting, using the RFID reader, a CDMA-encoded signal to RFID tags within a reading range of the RFID reader; receiving a response signal from an RFID tag within the reading range, wherein the response signal comprises data encoded with an orthogonal code of an RFID reader of the group of participating RFID readers; and decoding the data of the response signal using the known set of mutually-orthogonal codes.
Transition piece which electrically connects a normal current conductor to a superconductor , wherein: the transition piece comprises a container for receiving a cryogenic cooling liquid; the normal current conductor in the container extends vertically downward into the container and comprises a plurality of lower ends ; the lower ends extend vertically downward to different depths, forming protrusions from each other in the downward vertical direction; electrical contact zones are provided between the normal current conductor and the superconductor at least in the region of the protrusions ; and a level control is provided for controlling the level (7a', 7a") of the cryogenic cooling liquid in the container in the region of the protrusions or electrical contact zones , characterized in that the level control is designed such that the level control regulates the level (7a', 7a") of the cryogenic cooling liquid in the container in the region of the protrusions or electrical contact zones from bottom to top with increasing load; and the level control regulates the level (7a', 7a") of the cryogenic cooling liquid in the container in the region of the protrusions or electrical contact zones from top to bottom with decreasing load; and. the transition piece comprises a container for receiving a cryogenic cooling liquid; the normal current conductor in the container extends vertically downward into the container and comprises a plurality of lower ends ; the lower ends extend vertically downward to different depths, forming protrusions from each other in the downward vertical direction; electrical contact zones are provided between the normal current conductor and the superconductor at least in the region of the protrusions ; and a level control is provided for controlling the level (7a', 7a") of the cryogenic cooling liquid in the container in the region of the protrusions or electrical contact zones , characterized in that the level control is designed such that the level control regulates the level (7a', 7a") of the cryogenic cooling liquid in the container in the region of the protrusions or electrical contact zones from bottom to top with increasing load; and the level control regulates the level (7a', 7a") of the cryogenic cooling liquid in the container in the region of the protrusions or electrical contact zones from top to bottom with decreasing load; and.