mhurhangee/patent-ind-claim-en huggingface dataset:
A display system, comprising: a wearable display device comprising: a display area comprising light redirecting features configured to direct light to a user, wherein the display area is at least partially transparent and is configured to provide a view of an ambient environment through the display area; one or more hardware processors; and a non-transitory computer-readable storage medium including computer-executable instructions that, when executed by the one or more hardware processors, cause the one or more hardware processors to perform operations comprising: determining that a reflection from a specular reflector is within the user's field of view through the display area, wherein determining that the reflection from the specular reflector is within the user's field of view comprises: emitting electromagnetic radiation or acoustical waves; detecting, via a sensor , a reflection of the electromagnetic radiation or acoustical waves by a reflective surface, wherein data from the sensor is analyzed to determine an amount of diffusion implied by the reflection; and determining that the reflective surface comprises the specular reflector if the amount of diffusion is below a threshold. a wearable display device comprising: a display area comprising light redirecting features configured to direct light to a user, wherein the display area is at least partially transparent and is configured to provide a view of an ambient environment through the display area; one or more hardware processors; and a non-transitory computer-readable storage medium including computer-executable instructions that, when executed by the one or more hardware processors, cause the one or more hardware processors to perform operations comprising: determining that a reflection from a specular reflector is within the user's field of view through the display area, wherein determining that the reflection from the specular reflector is within the user's field of view comprises: emitting electromagnetic radiation or acoustical waves; detecting, via a sensor , a reflection of the electromagnetic radiation or acoustical waves by a reflective surface, wherein data from the sensor is analyzed to determine an amount of diffusion implied by the reflection; and determining that the reflective surface comprises the specular reflector if the amount of diffusion is below a threshold. emitting electromagnetic radiation or acoustical waves; detecting, via a sensor , a reflection of the electromagnetic radiation or acoustical waves by a reflective surface, wherein data from the sensor is analyzed to determine an amount of diffusion implied by the reflection; and determining that the reflective surface comprises the specular reflector if the amount of diffusion is below a threshold.
A touch sensing apparatus, comprising: a plate having a touch surface ; a set of emitters arranged around the touch surface to emit first beams of light to propagate across the touch surface , a set of light detectors arranged around the touch surface to receive light from the first set of emitters , wherein each light detector is arranged to receive light from more than one emitter ; a processing element configured to determine, based on output signals of the set of light detectors , the position of an object on the touch surface , wherein the touch surface is curved in a concave shape in a first axis, characterised by a frame assembly comprising a first frame element comprising a first portion and a second portion , a second frame element comprising a first portion and a second portion , wherein the second frame element is arranged on top of the first frame element such that the perimeter of the plate is arranged between the second portions of each of the first and second frame elements , and a sealing arranged between the second portion of the second frame element and the plate , wherein the frame assembly being arranged to apply a controlled force along the perimeter of the plate so that a curvature of the plate is controlled, wherein the touch surface is curved in a concave shape in a second axis perpendicular to the first axis. a plate having a touch surface ; a set of emitters arranged around the touch surface to emit first beams of light to propagate across the touch surface , a set of light detectors arranged around the touch surface to receive light from the first set of emitters , wherein each light detector is arranged to receive light from more than one emitter ; a processing element configured to determine, based on output signals of the set of light detectors , the position of an object on the touch surface , wherein the touch surface is curved in a concave shape in a first axis, characterised by a frame assembly comprising a first frame element comprising a first portion and a second portion , a second frame element comprising a first portion and a second portion , wherein the second frame element is arranged on top of the first frame element such that the perimeter of the plate is arranged between the second portions of each of the first and second frame elements , and a sealing arranged between the second portion of the second frame element and the plate , wherein the frame assembly being arranged to apply a controlled force along the perimeter of the plate so that a curvature of the plate is controlled, wherein the touch surface is curved in a concave shape in a second axis perpendicular to the first axis.
Use of polyalkyl acrylates, consisting of 100% by weight of branched C 8-10 -alkyl acrylates, characterized in that the weight-average molecular weight is in the range of 7,000 to 25,000 g/mol, the polydispersity index M w /M n is in the range of 1.5 to 3.5 and the residual monomer content is 0.1% by weight or lower, as base oils in lubricant formulations.
Conductor assembly comprising a first conductive core part and at least one second conductive core part , wherein the first conductive core part is axially moveably arranged with respect to the at least one second conductive core part , and comprising at least one insulating sleeve that is axially moveably arranged with respect to the first conductive core part and the at least one second conductive core part , wherein the conductor assembly comprises at least one loading arrangement , characterized in that the at least one loading arrangement comprises at least one guidance member and at least one preloadable spring , wherein the at least one preloadable spring is mounted on the at least one guidance member and wherein the at least one guidance member is arranged axially moveable with respect to the first conductive core part and wherein the at least one guidance member is arranged axially fixed with respect to the at least one second conductive core part , wherein the at least one loading arrangement is embodied such that the first conductive core part is loaded in an axial direction towards the at least one second conductive core part , wherein the at least one insulating sleeve is arranged with respect to the first conductive core part and the at least one second conductive core part such that the at least one insulative sleeve is clamped between the first conductive core part and the at least one second conductive core part due to the loading between the first conductive core part and the at least one second conductive core part applied by the at least one loading arrangement and wherein the at least one insulating sleeve comprises a first contact surface and at least one second contact surface , wherein the first conductive core part comprises a first corresponding contact surface to the first contact surface of the at least one insulating sleeve , wherein the at least one second conductive core part comprises a second corresponding contact surface to the at least one second contact surface of the at least one insulating sleeve and wherein a clamping force of the at least one loading arrangement is applied by the first corresponding contact surface of the first conductive core part and the second corresponding contact surface of the at least one second conductive core part to the first and the at least one second contact surface of the at least one insulating sleeve .
A method of running a program comprising a plurality of concurrent threads on a computer, wherein: at any given time the program is in a current one of a sequence of global execution phases; each of the threads is divided into a respective sequence of local execution phases each corresponding to a different corresponding one in the sequence of global execution phases, wherein at any given time the thread is in a current one of the respective sequence of local execution phases, and the current local execution phase is not allowed to progress beyond the local execution phase in the respective sequence that corresponds to the current global execution phase; any of the threads is able to advance the global execution phase to the next in the sequence of global execution phases on condition that the current local execution phase of all of the threads has reached the local execution phase in the respective sequence that corresponds to the current global execution phase; one of the threads comprises code to perform an internal acquire to acquire a lock on its respective local execution phase; the method being characterized in that at least one other of the threads comprises code to perform an external release to force advancement of the current local execution phase of said one of the threads, but wherein the external release will be blocked if said one of the threads has performed the internal acquire. at any given time the program is in a current one of a sequence of global execution phases; each of the threads is divided into a respective sequence of local execution phases each corresponding to a different corresponding one in the sequence of global execution phases, wherein at any given time the thread is in a current one of the respective sequence of local execution phases, and the current local execution phase is not allowed to progress beyond the local execution phase in the respective sequence that corresponds to the current global execution phase; any of the threads is able to advance the global execution phase to the next in the sequence of global execution phases on condition that the current local execution phase of all of the threads has reached the local execution phase in the respective sequence that corresponds to the current global execution phase; one of the threads comprises code to perform an internal acquire to acquire a lock on its respective local execution phase; the method being characterized in that at least one other of the threads comprises code to perform an external release to force advancement of the current local execution phase of said one of the threads, but wherein the external release will be blocked if said one of the threads has performed the internal acquire.
Method for depowdering a component which has been produced by a powder-based rapid prototyping process, wherein the component is excited to vibrations in the ultrasonic range, wherein the ultrasonic excitation of the component takes place essentially exclusively via vibrations propagating in solid bodies , the component being removed from a process chamber, within which the component was produced by the rapid prototyping method, prior to excitation with ultrasound, characterised in that the component is subjected to a pre-depowdering step prior to excitation with ultrasound, in which already loose, sufficiently flowable powder is removed from the component by moving the component or the system component supporting the component , for example the build-up platform , in such a way that the loose powder flows or falls out of the component .
A communication method, performed by a service zone identifier, ID, policy management entity of a core network, the method comprising: determining a service zone ID; and transmitting information including the service zone ID to a network function entity, wherein the network function entity selects a service producer instance from a service producer corresponding to the service zone ID, wherein the transmitting information including the service zone ID to a network function entity comprises: transmitting, in a registration process of user equipment, UE, first information including the service zone ID to the network function entity; and transmitting, in a protocol data unit, PDU, session establishment process of the UE, second information including the service zone ID to the network function entity, wherein the service zone ID transmitted in the PDU session establishment process is set to have higher priority than that of the service zone ID transmitted in the UE registration process. determining a service zone ID; and transmitting information including the service zone ID to a network function entity, wherein the network function entity selects a service producer instance from a service producer corresponding to the service zone ID, wherein the transmitting information including the service zone ID to a network function entity comprises: transmitting, in a registration process of user equipment, UE, first information including the service zone ID to the network function entity; and transmitting, in a protocol data unit, PDU, session establishment process of the UE, second information including the service zone ID to the network function entity, wherein the service zone ID transmitted in the PDU session establishment process is set to have higher priority than that of the service zone ID transmitted in the UE registration process. transmitting, in a registration process of user equipment, UE, first information including the service zone ID to the network function entity; and transmitting, in a protocol data unit, PDU, session establishment process of the UE, second information including the service zone ID to the network function entity, wherein the service zone ID transmitted in the PDU session establishment process is set to have higher priority than that of the service zone ID transmitted in the UE registration process.
Vacuum chamber machine for sealing pouches (B) with a sealing bar , wherein the sealing bar comprises an electrically conductive sealing band , wherein the vacuum chamber machine has a controller controlling a heating device for the sealing band , characterized in that the controller is configured to specify a duration of a heating time for the sealing band in dependency of an electrical energy (E) introduced into the sealing bar by sealing processes that happened already previously.
A cell culture medium consisting of: Iscove's modified Dulbecco's medium (IMDM); Ham's F-12 Nutrient Mix, with L-alanyl-L-glutamine additive; Albumin; α-monothioglycerol; protein-free hybridoma mixture II; L-ascorbic acid 2-phosphate; L-alanyl-L-glutamine; Antibiotic; insulin-transferrin-selenium-ethanolamine supplement; bone morphogenic protein (BMP) 4; vascular endothelial growth factor (VEGF); and basic fibroblast growth factor (bFGF); wherein the ratio of IMDM to Ham's F12 Nutrient Mix is in the range of 30%:70% to 55%:45%; wherein the concentration of albumin is in the range of 1 mg/ml to 10 mg/ml; wherein the concentration of α-monothioglycerol is in the range of 350 μM to 450 μM; wherein the concentration of the protein free hybridoma mixture II is in the range of 2% of the total medium formulation to 10% of the total medium formulation; wherein the concentration of L-ascorbic acid 2-phosphate is in the range of 30 μg/ml to 70 μg/ml; wherein the concentration of L-alanyl-L-glutamine is in the range of 0.3 mM to 2 mM; wherein the antibiotic is at a concentration sufficient to prevent the growth of bacteria; wherein the concentration of the insulin-transferrin-selenium-ethanolamine supplement is in the range of 0.5% to 3%; wherein the concentration of BMP4 is in the range of 3 ng/ml to 20 ng/ml; wherein the concentration of VEGF is in the range of 3 ng/ml to 20 ng/ml; and wherein the concentration of bFGF is in the range of 3 ng/ml to 35 ng/ml. Iscove's modified Dulbecco's medium (IMDM); Ham's F-12 Nutrient Mix, with L-alanyl-L-glutamine additive; Albumin; α-monothioglycerol; protein-free hybridoma mixture II; L-ascorbic acid 2-phosphate; L-alanyl-L-glutamine; Antibiotic; insulin-transferrin-selenium-ethanolamine supplement; bone morphogenic protein (BMP) 4; vascular endothelial growth factor (VEGF); and basic fibroblast growth factor (bFGF); wherein the ratio of IMDM to Ham's F12 Nutrient Mix is in the range of 30%:70% to 55%:45%; wherein the concentration of albumin is in the range of 1 mg/ml to 10 mg/ml; wherein the concentration of α-monothioglycerol is in the range of 350 μM to 450 μM; wherein the concentration of the protein free hybridoma mixture II is in the range of 2% of the total medium formulation to 10% of the total medium formulation; wherein the concentration of L-ascorbic acid 2-phosphate is in the range of 30 μg/ml to 70 μg/ml; wherein the concentration of L-alanyl-L-glutamine is in the range of 0.3 mM to 2 mM; wherein the antibiotic is at a concentration sufficient to prevent the growth of bacteria; wherein the concentration of the insulin-transferrin-selenium-ethanolamine supplement is in the range of 0.5% to 3%; wherein the concentration of BMP4 is in the range of 3 ng/ml to 20 ng/ml; wherein the concentration of VEGF is in the range of 3 ng/ml to 20 ng/ml; and wherein the concentration of bFGF is in the range of 3 ng/ml to 35 ng/ml.
A printer comprising: a liquid discharge head including a plurality of nozzles including: a line of first nozzles (N1) to discharge first liquid; and a line of second nozzles (N2) to discharge second liquid; and a processor configured to set a print speed in accordance with an amount of liquid applied to a recording medium to form a preceding image, characterised in that to set the print speed, the processor is configured to change a number of nozzles used in the line of first nozzles (N1) and/or a number of nozzles used in the line of second nozzles (N2), to change the ratio between the number of nozzles used in the line of first nozzles (N1), the number of nozzles used in the line of second nozzles (N2), and a number of nozzles in a range, common to the line of first nozzles and the line of second nozzles, that are disused, wherein the preceding image is formed with at least the first liquid and a subsequent image to be superimposed on the preceding image is formed with the second liquid. a liquid discharge head including a plurality of nozzles including: a line of first nozzles (N1) to discharge first liquid; and a line of second nozzles (N2) to discharge second liquid; and a line of first nozzles (N1) to discharge first liquid; and a line of second nozzles (N2) to discharge second liquid; and a processor configured to set a print speed in accordance with an amount of liquid applied to a recording medium to form a preceding image, characterised in that to set the print speed, the processor is configured to change a number of nozzles used in the line of first nozzles (N1) and/or a number of nozzles used in the line of second nozzles (N2), to change the ratio between the number of nozzles used in the line of first nozzles (N1), the number of nozzles used in the line of second nozzles (N2), and a number of nozzles in a range, common to the line of first nozzles and the line of second nozzles, that are disused, wherein the preceding image is formed with at least the first liquid and a subsequent image to be superimposed on the preceding image is formed with the second liquid.
A system for securing transmission of electronic messages, said system comprising: at least one non-transitory computer readable storage device and one or more processors operatively coupled to the storage device, the storage device being configured to store modules of instruction code which when executed by said one or more processors implements a messages Security Proxy and a message security router ; wherein said messages Security Proxy is configured to monitor communication to cellular mobile devices through a subscriber serving node; wherein said Security Proxy is configured to buffer the messages and verify authenticity of the Message recipient; being the Security Proxy further configured to, in case the message recipient is authenticated, send the message, otherwise block the message; characterized in that the system further comprises a security probe configured to detect a suspicious scenario by analyzing parameters and characteristics of the monitored communication in real time in relation to historically acquired data, including communication with subscriber serving node properties and the behavior of destination address or source address. at least one non-transitory computer readable storage device and one or more processors operatively coupled to the storage device, the storage device being configured to store modules of instruction code which when executed by said one or more processors implements a messages Security Proxy and a message security router ; wherein said messages Security Proxy is configured to monitor communication to cellular mobile devices through a subscriber serving node; wherein said Security Proxy is configured to buffer the messages and verify authenticity of the Message recipient; being the Security Proxy further configured to, in case the message recipient is authenticated, send the message, otherwise block the message; characterized in that the system further comprises a security probe configured to detect a suspicious scenario by analyzing parameters and characteristics of the monitored communication in real time in relation to historically acquired data, including communication with subscriber serving node properties and the behavior of destination address or source address.
An error concealment unit (100, 1402-1405) for providing an error concealment audio information for concealing a loss of an audio frame in an encoded audio information, wherein the error concealment unit is configured to provide an error concealment audio information based on a properly decoded audio frame preceding a lost audio frame, wherein the error concealment unit is configured to perform a fade out using different damping factors (1404a-1404g) for different frequency bands (1403a-1403g) of the properly decoded audio frame preceding the lost audio frame, characterized in that the error concealment unit is configured to adapt one or more damping factors, so as to fade out one or more frequency bands of the properly decoded audio frame preceding the lost audio frame and having a comparatively higher energy per spectral bin faster than one or more frequency bands of the properly decoded audio frame preceding the lost audio frame and having a comparatively lower energy per spectral bin.