mhurhangee/patent-ind-claim-en huggingface dataset:
A wedge shaped container formed from a folded web of flexible material, the container comprising: a base , a rear wall connected at a first edge of the base via a first fold line , and a pair of upstanding side walls , one on each side of the base , each side wall decreasing in height from the rear wall to the opposite end of the base such that in an erected configuration the base, rear wall and side walls form a wedge shape; each side wall being formed of a first side wall panel extending along and connected at an edge of the base via a second fold line transverse to the first fold line ; characterised by each side wall further comprising a second side wall panel extending along and connected at an edge of the rear wall via a third fold line transverse to the first fold line ; and in that the side wall panels of a respective side wall are connected together by a hinge joint, so that, from a fold-flat configuration, in which the rear wall overlies the base , folding of the rear wall about the first fold line away from the base causes the respective side wall panels to be folded inwardly about the second and third fold lines into the erected configuration in which the first and second side wall panels form the upstanding side walls to form the wedge shaped container. a base , a rear wall connected at a first edge of the base via a first fold line , and a pair of upstanding side walls , one on each side of the base , each side wall decreasing in height from the rear wall to the opposite end of the base such that in an erected configuration the base, rear wall and side walls form a wedge shape; each side wall being formed of a first side wall panel extending along and connected at an edge of the base via a second fold line transverse to the first fold line ; characterised by each side wall further comprising a second side wall panel extending along and connected at an edge of the rear wall via a third fold line transverse to the first fold line ; and in that the side wall panels of a respective side wall are connected together by a hinge joint, so that, from a fold-flat configuration, in which the rear wall overlies the base , folding of the rear wall about the first fold line away from the base causes the respective side wall panels to be folded inwardly about the second and third fold lines into the erected configuration in which the first and second side wall panels form the upstanding side walls to form the wedge shaped container.
A cooking apparatus comprising a latch assembly disposed in a main body and configured to confine a key member of a door , wherein the latch assembly comprises: a body including an interference hole therein; a first lever rotatably coupled to the body ; a second lever configured to be rotatable in a first direction due to pressurization of the key member ; a sensor selectively pressurized by the first lever and configured to sense whether the door is opened or closed to prevent a malfunction of the cooking apparatus , characterized in that , the latch assembly further comprising: a stopper connected to the second lever and configured to restrict rotation of the first lever as the stopper is inserted into the interference hole , wherein when the second lever is pressurized, the stopper leaves the interference hole , wherein when the stopper leaves the interference hole a locked state of the first lever is released, and the first lever is rotated in the first direction together with the second lever . a body including an interference hole therein; a first lever rotatably coupled to the body ; a second lever configured to be rotatable in a first direction due to pressurization of the key member ; a stopper connected to the second lever and configured to restrict rotation of the first lever as the stopper is inserted into the interference hole , wherein when the second lever is pressurized, the stopper leaves the interference hole , wherein when the stopper leaves the interference hole a locked state of the first lever is released, and the first lever is rotated in the first direction together with the second lever .
An illuminator comprising: a support frame comprising a rigid plate and a plurality of panels ; an optical diffuser connected to the support frame; a first plurality of light emitting diodes, LEDs, , each of the first plurality of LEDs being supported by one of the plurality of panels of the support frame, the first plurality of LEDs being configured to provide dark field illumination at a high angle of incidence with respect to the direction to an object, the first plurality of LEDs further being configured to provide illumination to the object without the use of a diffuser or reflector; a second plurality of LEDs positioned near a center portion of the rigid plate of the support frame, the second plurality of LEDs being configured to provide bright field illumination at a low angle of incidence with respect to the direction to the object, the second plurality of LEDs further being configured to provide illumination to the object without the use of a light pipe, diffuser, or reflector; and a third plurality of LEDs , each of the third plurality of LEDs being positioned on a respective corner of the rigid plate of the support frame, the third plurality of LEDs being configured to provide bright field illumination through the optical diffuser without the use of a light pipe or reflector; characterized by a rigid belt connected to the plurality of panels at an edge of the optical diffuser; and wherein the rigid belt comprises transparent elements configured to distribute light from the first plurality of LEDs. a support frame comprising a rigid plate and a plurality of panels ; an optical diffuser connected to the support frame; a first plurality of light emitting diodes, LEDs, , each of the first plurality of LEDs being supported by one of the plurality of panels of the support frame, the first plurality of LEDs being configured to provide dark field illumination at a high angle of incidence with respect to the direction to an object, the first plurality of LEDs further being configured to provide illumination to the object without the use of a diffuser or reflector; a second plurality of LEDs positioned near a center portion of the rigid plate of the support frame, the second plurality of LEDs being configured to provide bright field illumination at a low angle of incidence with respect to the direction to the object, the second plurality of LEDs further being configured to provide illumination to the object without the use of a light pipe, diffuser, or reflector; and a third plurality of LEDs , each of the third plurality of LEDs being positioned on a respective corner of the rigid plate of the support frame, the third plurality of LEDs being configured to provide bright field illumination through the optical diffuser without the use of a light pipe or reflector; characterized by a rigid belt connected to the plurality of panels at an edge of the optical diffuser; and wherein the rigid belt comprises transparent elements configured to distribute light from the first plurality of LEDs.
A device for determining at least one substance parameter of a substance , said substance flowing in a pipeline, wherein said device comprises electromagnetic wave transmitting means and receiving means for transmitting and receiving, respectively, electromagnetic waves through said substance, wherein said device comprises an outer chamber, an inner transfer pipeline element configured with at least two opposed wall segments that are essentially parallel with each other and wherein said electromagnetic wave transmitting means and receiving means comprises two antennas , wherein said two antennas each are positioned at a respective one of said at least two opposed wall segments , wherein said two antennas are configured to pass electromagnetic waves through said substance flowing via said inner transfer pipeline element , characterized in that said outer chamber is an outer metal chamber , which is lined at least partly with an interior layer of electromagnetic wave absorber material , and in that the electromagnetic waves passed through said substance have a planar wave front.
A person anchor unit for person fall safety, the person anchor unit comprising - a connection side comprising a connection surface adapted for facing an anchor surface comprising magnetizable material; and - an anchor point for attaching a safety line ; - one or more permanent magnets positioned at or near the connection surface ; and - at least one test unit for testing the connection strength between the one or more permanent magnets and the anchor surface , the at least one test unit comprising - a first displacement member being displaceable between a retracted position and an extended position , wherein the first displacement member at the extended position engage the anchor surface ; - a tool connection point mechanically linked to the first displacement member , wherein actuation of the tool connection point causes displacement of the first displacement member between the retracted position and the extended position . - a connection side comprising a connection surface adapted for facing an anchor surface comprising magnetizable material; and - an anchor point for attaching a safety line ; - one or more permanent magnets positioned at or near the connection surface ; and - at least one test unit for testing the connection strength between the one or more permanent magnets and the anchor surface , the at least one test unit comprising - a first displacement member being displaceable between a retracted position and an extended position , wherein the first displacement member at the extended position engage the anchor surface ; - a tool connection point mechanically linked to the first displacement member , wherein actuation of the tool connection point causes displacement of the first displacement member between the retracted position and the extended position . - a first displacement member being displaceable between a retracted position and an extended position , wherein the first displacement member at the extended position engage the anchor surface ; - a tool connection point mechanically linked to the first displacement member , wherein actuation of the tool connection point causes displacement of the first displacement member between the retracted position and the extended position .
A fastener system , comprising: a fastener with an RFID tag secured to the fastener , wherein the RFID tag includes an antenna communicatively coupled to an integrated circuit which includes a memory , wherein the fastener includes a head and a shaft ; an operating system device , which transmits a command signal containing logistics data to the antenna of the RFID tag wherein the antenna receives the command signal and communicates the command signal containing the logistics data to the integrated circuit , wherein the fastener has a portion that is designed to be removed in an installation process and a remaining portion that is designed to remain secured to an item being fabricated, said portion that is designed to be removed being defined by part of the shaft and the remaining portion including the head and a remaining part of the shaft of fastener , the RFID tag being secured to the part of the shaft that defines the portion that is designed to be removed.
A torque limiter assembly comprising: a housing having at least one first engagement member ; and an input shaft that is rotatable relative to the housing and having at least one second engagement member ; an electromagnet ; and a biasing member configured to bias the at least one first engagement member away from the at least one second engagement member ; wherein the electromagnet is arranged and configured such that when activated it generates a magnetic field that moves the at least one first engagement member relative to the at least one second engagement member , such that the first and second engagement members engage each other and stop or inhibit rotation of the input shaft relative to the housing ; characterised in that the biasing member is a spring coupled at a first of its ends to the housing or to the at least one first engagement member , and at a second of its ends to the at least one second engagement member or the input shaft , wherein the spring is an annular spring arranged around the input shaft ,. a housing having at least one first engagement member ; and an input shaft that is rotatable relative to the housing and having at least one second engagement member ; an electromagnet ; and a biasing member configured to bias the at least one first engagement member away from the at least one second engagement member ; wherein the electromagnet is arranged and configured such that when activated it generates a magnetic field that moves the at least one first engagement member relative to the at least one second engagement member , such that the first and second engagement members engage each other and stop or inhibit rotation of the input shaft relative to the housing ; characterised in that the biasing member is a spring coupled at a first of its ends to the housing or to the at least one first engagement member , and at a second of its ends to the at least one second engagement member or the input shaft , wherein the spring is an annular spring arranged around the input shaft ,.
A method at a user equipment for hybrid automatic repeat request "HARQ" operation, the user equipment operating on a primary carrier having a time division duplex "TDD" mode and on at least one secondary carrier having a frequency division duplex "FDD" mode wherein HARQ feedback for the at least one secondary carrier is provided through the primary carrier, the method comprising: determining a number of uplink subframes of a TDD configuration and a number of downlink subframes of the TDD configuration; when the number of uplink subframes of the TDD configuration exceeds a number of downlink subframes of the TDD configuration, using HARQ timing of the FDD mode as the PDSCH HARQ timing of the at least one secondary carrier; when the number of uplink subframes in the TDD configuration equals the number of downlink subframes, utilizing a predetermined one of the HARQ timing for the TDD mode and the HARQ timing for the FDD mode as the PDSCH HARQ timing of the at least one secondary carrier; when the number of uplink subframes of the TDD configuration is less than the number of downlink subframes of the TDD configuration, using the HARQ timing of the TDD mode as the PDSCH HARQ timing of the at least one secondary carrier. determining a number of uplink subframes of a TDD configuration and a number of downlink subframes of the TDD configuration; when the number of uplink subframes of the TDD configuration exceeds a number of downlink subframes of the TDD configuration, using HARQ timing of the FDD mode as the PDSCH HARQ timing of the at least one secondary carrier; when the number of uplink subframes in the TDD configuration equals the number of downlink subframes, utilizing a predetermined one of the HARQ timing for the TDD mode and the HARQ timing for the FDD mode as the PDSCH HARQ timing of the at least one secondary carrier; when the number of uplink subframes of the TDD configuration is less than the number of downlink subframes of the TDD configuration, using the HARQ timing of the TDD mode as the PDSCH HARQ timing of the at least one secondary carrier.
An isolated bacterium, which is Butyribacter intestini having the sequence of 16s rDNA as set forth in SEQ ID NO: 1.
A method for lighting control by an audio bus lighting control device in a vehicle , the method comprising: receiving , by the audio bus lighting control device , audio bus data generated by an audio source in the vehicle , wherein receiving the audio bus data includes receiving at least one channel of an audio signal of an audio bus of the vehicle , and wherein the audio bus data includes a signal encoding lighting parameters for at least one lighting element of the vehicle ; generating , by a controller of the audio bus lighting control device , a lighting control signal for the at least one lighting element of the vehicle based on the audio bus data; and controlling , by a switching circuitry of the audio bus lighting control device , operation of the at least one lighting element of the vehicle based on the lighting control signal. receiving , by the audio bus lighting control device , audio bus data generated by an audio source in the vehicle , wherein receiving the audio bus data includes receiving at least one channel of an audio signal of an audio bus of the vehicle , and wherein the audio bus data includes a signal encoding lighting parameters for at least one lighting element of the vehicle ; generating , by a controller of the audio bus lighting control device , a lighting control signal for the at least one lighting element of the vehicle based on the audio bus data; and controlling , by a switching circuitry of the audio bus lighting control device , operation of the at least one lighting element of the vehicle based on the lighting control signal.
A wearable component configured to be worn on a head of a user, the wearable component including a user surface configured to face the head of the user when worn by the user and an outside surface opposite the user surface and spaced from the user surface along a first direction non-parallel to the user surface , the outside surface configured to face away from the head of the user when worn by the user, the wearable component comprising: a wearable support having a thickness along the first direction; an electronic component in thermal communication with the wearable support ; and a thermal management structure in thermal communication with the electronic component, characterized in that the thermal management structure comprises a thermally conductive structure extending through at least a portion of the thickness of the wearable support and configured to transfer heat along the first direction from the electronic component away from the user surface of the wearable component towards the outside surface of the wearable component . a wearable support having a thickness along the first direction; an electronic component in thermal communication with the wearable support ; and a thermal management structure in thermal communication with the electronic component, characterized in that the thermal management structure comprises a thermally conductive structure extending through at least a portion of the thickness of the wearable support and configured to transfer heat along the first direction from the electronic component away from the user surface of the wearable component towards the outside surface of the wearable component .
An article comprising: (a) an electrosurgical cutting blade comprising a metal electrode, and (b) a visible vitreous enamel coating on at least a portion of the metal electrode, wherein incident light striking the vitreous enamel coating is diffusely reflected or absorbed, and the vitreous enamel coating exhibits a 60° gloss value less than 100 gloss units as measured according to ASTM D523-14, Standard Test Method for Specular Gloss. (a) an electrosurgical cutting blade comprising a metal electrode, and (b) a visible vitreous enamel coating on at least a portion of the metal electrode, wherein incident light striking the vitreous enamel coating is diffusely reflected or absorbed, and the vitreous enamel coating exhibits a 60° gloss value less than 100 gloss units as measured according to ASTM D523-14, Standard Test Method for Specular Gloss.
A method performed by a terminal of a wireless communication system for supporting non-orthogonal multiple access, NOMA, the method comprising: transmitting , to a base station , first information associated with a coherence time of a communication channel between the terminal and the base station; receiving second information associated with a reference signal transmission scheme from the base station, the second information being determined based at least in part on the first information, a number of terminals performing an overlapping transmission with the terminal based on the NOMA, and a frequency resource allocated to the terminal; generating a reference signal, based on the second information; and transmitting the reference signal to the base station, wherein the second information includes a transmission start position of the reference signal, a time interval of the reference signal, and a frequency interval of the reference signal. transmitting , to a base station , first information associated with a coherence time of a communication channel between the terminal and the base station; receiving second information associated with a reference signal transmission scheme from the base station, the second information being determined based at least in part on the first information, a number of terminals performing an overlapping transmission with the terminal based on the NOMA, and a frequency resource allocated to the terminal; generating a reference signal, based on the second information; and transmitting the reference signal to the base station, wherein the second information includes a transmission start position of the reference signal, a time interval of the reference signal, and a frequency interval of the reference signal.
A method of wireless communication, said method comprising: collecting samples of first portions of a received signal, sampled at an initial sampling rate, wherein the received signal comprises a pilot signal (66-1) followed by data words, wherein said collecting samples of the first portions comprises collecting samples of first words of the data words; estimating a number of wireless device transmissions in the collected samples; based on the estimated number of wireless device transmissions, selecting an updated sampling rate at which to sample additional portions of the received signal; and providing an indication of the updated sampling rate to a sampler that samples second portions of the received signal comprising second words of the data words. collecting samples of first portions of a received signal, sampled at an initial sampling rate, wherein the received signal comprises a pilot signal (66-1) followed by data words, wherein said collecting samples of the first portions comprises collecting samples of first words of the data words; estimating a number of wireless device transmissions in the collected samples; based on the estimated number of wireless device transmissions, selecting an updated sampling rate at which to sample additional portions of the received signal; and providing an indication of the updated sampling rate to a sampler that samples second portions of the received signal comprising second words of the data words.
Method for producing a hose connection comprising a pressure measuring point for connecting a pressure sensor through a closed wall . characterized by the following method steps: forming a hole through the wall with the diameter of the rivet extension of a blind rivet comprising a mandrel ; inserting the blind rivet through the hole up to the stop of the rivet head at the wall and mounting a hose with an inner diameter corresponding to the outer diameter of the rivet extension on the rivet extension of the blind rivet at the opposite side of the wall ; and pulling the mandrel of the blind rivet . forming a hole through the wall with the diameter of the rivet extension of a blind rivet comprising a mandrel ; inserting the blind rivet through the hole up to the stop of the rivet head at the wall and mounting a hose with an inner diameter corresponding to the outer diameter of the rivet extension on the rivet extension of the blind rivet at the opposite side of the wall ; and pulling the mandrel of the blind rivet .