mhurhangee/patent-ind-claim-en huggingface dataset:
Isolated, primary side switched driver for lighting means , wherein a mains voltage is connectable to the primary side of the isolated driver, the isolated driver comprising: - a primary circuit having a switch; - a secondary circuit ; - an isolation barrier separating the primary circuit and the secondary circuit , wherein a ground potential of the primary circuit and a ground potential of the secondary circuit are connected via a capacitor ; and - a control circuit on the secondary side , configured to monitor a current to/from the capacitor to the ground potential of the secondary circuit and configured to issue a mains failure signal in case the current does not meet predefined conditions, preferably in case no such current is detected, wherein a shunt resistor is connected in series between the capacitor and the ground potential of the secondary circuit . - a primary circuit having a switch; - a secondary circuit ; - an isolation barrier separating the primary circuit and the secondary circuit , wherein a ground potential of the primary circuit and a ground potential of the secondary circuit are connected via a capacitor ; and - a control circuit on the secondary side , configured to monitor a current to/from the capacitor to the ground potential of the secondary circuit and configured to issue a mains failure signal in case the current does not meet predefined conditions, preferably in case no such current is detected, wherein a shunt resistor is connected in series between the capacitor and the ground potential of the secondary circuit .
A data communications apparatus for a vehicle, the apparatus comprising a plurality of platform applications , a communications system , and a data management module , the communications system being configured to cause data from each said platform application to be transmitted, via wireless data communication, to at least one recipient node via a respective one or more allocated or associated communication links of a plurality of supported communications links , said data management module being configured to: - receive performance data indicative of a current available bandwidth of each communications link allocated to or associated with said platform applications; - for each said platform application, identify data to be transmitted thereby to a recipient node, and compare a bandwidth requirement of data to be transmitted with the current available bandwidth of the respective communications link allocated thereto or associated therewith; and - in the event that, as a result of said comparing, the current available bandwidth of the respective communications link is determined to be insufficient in relation to the bandwidth requirement of one of its associated platform applications, generate information data and transmit said information data to the platform application, or a quality of service interface associated therewith; wherein each said platform application, or a quality of service interface associated therewith, is configured, upon receipt of said information data, to adapt at least one parameter of its respective application data to said current available bandwidth of its respective communications link for transmission to a recipient node. - receive performance data indicative of a current available bandwidth of each communications link allocated to or associated with said platform applications; - for each said platform application, identify data to be transmitted thereby to a recipient node, and compare a bandwidth requirement of data to be transmitted with the current available bandwidth of the respective communications link allocated thereto or associated therewith; and - in the event that, as a result of said comparing, the current available bandwidth of the respective communications link is determined to be insufficient in relation to the bandwidth requirement of one of its associated platform applications, generate information data and transmit said information data to the platform application, or a quality of service interface associated therewith;
A charging apparatus for a robot cleaner, comprising: a charging apparatus body comprising a housing that accommodates a power module therein, and a bottom plate that is coupled to a bottom surface of the housing and on which a charging terminal is disposed; and characterized in a docking plate that is selectively mounted on the bottom plate of the charging apparatus body and docks the robot cleaner on an upper portion, wherein the docking plate comprises: an engaging protrusion that is disposed in a front portion, at least a portion of which is inserted into the charging apparatus body ; and a hook that is disposed at a rear of the engaging protrusion , at least a portion of which is caught on the charging apparatus body . a charging apparatus body comprising a housing that accommodates a power module therein, and a bottom plate that is coupled to a bottom surface of the housing and on which a charging terminal is disposed; and characterized in a docking plate that is selectively mounted on the bottom plate of the charging apparatus body and docks the robot cleaner on an upper portion, an engaging protrusion that is disposed in a front portion, at least a portion of which is inserted into the charging apparatus body ; and a hook that is disposed at a rear of the engaging protrusion , at least a portion of which is caught on the charging apparatus body .
A method of forming a baffle or reinforcement comprises molding an expandable material in a first cavity of a mold and molding a carrier material onto the expandable material in a second cavity of the mold , wherein the first cavity defines the shape of the expandable material , and the second cavity defines the shape of the baffle or reinforcement and wherein the carrier material is overmolded onto the expandable material in the second cavity of the mold , wherein the mold having a first side and a second side partially defining the first cavity , and a plate disposed therebetween, rotating the plate to move the expandable material to a second cavity defined by the mold, and overmolding the carrier material onto the expandable material in the second cavity of the mold partially defined by the first side and the second side, wherein the carrier material is molded onto the expandable material at a temperature that is higher than the temperature that starts the expansion of the expandable material and the carrier material is injected into the cavity of the mold at a temperature that causes the expandable material to react on a surface and chemically bond to said carrier material, wherein the the first cavity and the second cavity are defined by flat surfaces of the first side and the second side of the mold , wherein the baffle or reinforcement includes the carrier and the expandable material in a sandwich configuration and the carrier at least partially sandwiches two different expandable materials (180 and 190) or one expandable material and a non-expandable material .
A sterile interface comprising: a surgical platform having a housing element ; a flexible sleeve , which covers at least a portion of the surgical platform; an articulated surgical instrument having a proximal hub ; and a rigid connector comprising a core component having first and second rings , a deformable circumferential flange , and a fixation ring , the first ring configured to be coupled to the housing element of the surgical platform for locking engagement with the housing element via rotation actuated by a first compression spring and the second ring configured to be coupled to the proximal hub of the surgical instrument for locking engagement with the proximal hub via rotation actuated by a second compression spring , and the fixation ring configured to engage the deformable circumferential flange to capture a portion of the flexible sleeve therebetween, wherein the rigid connector allows the articulated surgical instrument to be removably coupled via the rigid connector to the housing element of the surgical platform while the surgical platform remains sterile, such that sterile articulated surgical instruments are attachable to the surgical platform without contacting non-sterile components of the surgical platform . a surgical platform having a housing element ; a flexible sleeve , which covers at least a portion of the surgical platform; an articulated surgical instrument having a proximal hub ; and a rigid connector comprising a core component having first and second rings , a deformable circumferential flange , and a fixation ring , the first ring configured to be coupled to the housing element of the surgical platform for locking engagement with the housing element via rotation actuated by a first compression spring and the second ring configured to be coupled to the proximal hub of the surgical instrument for locking engagement with the proximal hub via rotation actuated by a second compression spring , and the fixation ring configured to engage the deformable circumferential flange to capture a portion of the flexible sleeve therebetween, wherein the rigid connector allows the articulated surgical instrument to be removably coupled via the rigid connector to the housing element of the surgical platform while the surgical platform remains sterile, such that sterile articulated surgical instruments are attachable to the surgical platform without contacting non-sterile components of the surgical platform .
A sealing device for repairing perforation of maxillary sinus mucosa, wherein: the sealing device is a bag-like structure, comprises a bag mouth and a bag body , and consist of an absorbable bio-collagen membrane having a rough surface on one side and a smooth surface on the other side, wherein the bag mouth is a stitching portion, an inner wall of the bag body forms the rough surface, and an outer wall of the bag body forms the smooth surface.
A polymer comprising structural units of the following general formula : wherein m is an integer of 2 to 5, R 1 s may be the same as or different from one another and represent at each occurrence a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, R 2 is a hydrogen atom, a fluorine atom, a chlorine atom, an iodine atom, an alkyl group having 1 to 4 carbon atoms, an alkoxy group having 1 to 4 carbon atoms, an alkylthio group having 1 to 4 carbon atoms, a haloalkyl group having 1 to 4 carbon atoms, a haloalkoxy group having 1 to 4 carbon atoms, a vinyl group, a nitro group, a cyano group, a formyl group, an amino group, a hydroxyl group, a thiol group, a sulfo group, a sulfonamide group, a carboxyl group or an ester group, and, when m is 2 or 3, R 2 s may be the same as or different from one another, and the asterisks indicate a polymer end or a bond to other structural unit. m is an integer of 2 to 5, R 1 s may be the same as or different from one another and represent at each occurrence a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, R 2 is a hydrogen atom, a fluorine atom, a chlorine atom, an iodine atom, an alkyl group having 1 to 4 carbon atoms, an alkoxy group having 1 to 4 carbon atoms, an alkylthio group having 1 to 4 carbon atoms, a haloalkyl group having 1 to 4 carbon atoms, a haloalkoxy group having 1 to 4 carbon atoms, a vinyl group, a nitro group, a cyano group, a formyl group, an amino group, a hydroxyl group, a thiol group, a sulfo group, a sulfonamide group, a carboxyl group or an ester group, and, when m is 2 or 3, R 2 s may be the same as or different from one another, and the asterisks indicate a polymer end or a bond to other structural unit.
Protective clothing for a motorcyclist having at least one light-emitting light surface which includes at least one luminescent fibre, and having a first control unit which is electrically coupled with the light surface and is designed to control the light surface and has a wireless interface for communication with a second control unit disposed on a motorcycle , wherein the first control unit is configured to receive signals from the second control unit which facilitate a synchronising of an activity of the light surface with an activity of at least one light of the motorcycle , and to control the light surface corresponding to the signals, wherein the light surface is integrated into the protective clothing and is designed to be reversibly deformable, wherein the protective clothing has at least one further wireless interface which is suitable to transmit an electrical supply current and to couple the light surface with a power supply of the motorcycle , characterised in that a means for the further wireless interface is installed in a hand region and/or a wrist region of the protective clothing on the protective clothing .
A first Ethernet switch configurable for providing a first Layer-2 communication path between the first Ethernet switch and a second Ethernet switch via a third Ethernet switch connected between the first and second Ethernet switches, a second Layer-2 communication path, that is different from the first communication path, between the first Ethernet switch and the second Ethernet switch via a fourth Ethernet switch connected between the first and second Ethernet switches, and a third Layer-2 communication path, that is different from the first and from the second communication paths, between the first Ethernet switch and the second Ethernet switch via a fifth Ethernet switch connected between the first and second Ethernet switches, the first Ethernet switch comprising: a first port for receiving different first, second, and third groups of Ethernet frames; a second port connectable to the third Ethernet switch; a third port connectable to the fourth Ethernet switch; and a fourth port connectable to the fifth Ethernet switch, wherein the first Ethernet switch is configurable to transmit the first group of Ethernet frames only via the second port to the third Ethernet switch as part of the first Layer-2 communication path, wherein the first Ethernet switch is configurable to transmit the second group of Ethernet frames only via the third port to the fourth Ethernet switch as part of the second Layer-2 communication path, wherein the first Ethernet switch is configurable to transmit the third group of Ethernet frames only via the fourth port to the fifth Ethernet switch as part of the third Layer-2 communication path, and wherein the Ethernet frames are assigned to be carried over one of the first, second, and third communication paths based on respective results of a hashing function applied to their respective header value in a header field. a first port for receiving different first, second, and third groups of Ethernet frames; a second port connectable to the third Ethernet switch; a third port connectable to the fourth Ethernet switch; and a fourth port connectable to the fifth Ethernet switch, wherein the first Ethernet switch is configurable to transmit the first group of Ethernet frames only via the second port to the third Ethernet switch as part of the first Layer-2 communication path, wherein the first Ethernet switch is configurable to transmit the second group of Ethernet frames only via the third port to the fourth Ethernet switch as part of the second Layer-2 communication path, wherein the first Ethernet switch is configurable to transmit the third group of Ethernet frames only via the fourth port to the fifth Ethernet switch as part of the third Layer-2 communication path, and wherein the Ethernet frames are assigned to be carried over one of the first, second, and third communication paths based on respective results of a hashing function applied to their respective header value in a header field.
A method comprising: rendering an image based on a neural radiance field, NeRF, volumetric representation of a scene, wherein the NeRF volumetric representation of the scene is based on captured frames of video data, each captured frame including a color image of the scene, a widefield IR image of the scene captured when the scene is illuminated by a source of widefield IR light, and a plurality of depth IR images of the scene, with each of the depth IR images being captured when the scene is illuminated by a different pattern of points of IR light, wherein the illumination by the different patterns of points of IR light occurs at different times, wherein the NeRF volumetric representation provides a mapping between positions and viewing directions to a color and optical density at each position in the scene, the color and optical density at each position in the scene enabling a viewing the scene from a new perspective, and wherein the NeRF volumetric representation provides a mapping between positions and viewing directions to IR values for each of the different patterns of points of IR light from the new perspective; defining a synthesizing function to generate an enhanced image from the image; and computing the synthesizing function using a neural network trained based on a loss function between a predicted image generated by the neural network and a ground truth image captured by a ground truth camera during training. rendering an image based on a neural radiance field, NeRF, volumetric representation of a scene, wherein the NeRF volumetric representation of the scene is based on captured frames of video data, each captured frame including a color image of the scene, a widefield IR image of the scene captured when the scene is illuminated by a source of widefield IR light, and a plurality of depth IR images of the scene, with each of the depth IR images being captured when the scene is illuminated by a different pattern of points of IR light, wherein the illumination by the different patterns of points of IR light occurs at different times, wherein the NeRF volumetric representation provides a mapping between positions and viewing directions to a color and optical density at each position in the scene, the color and optical density at each position in the scene enabling a viewing the scene from a new perspective, and wherein the NeRF volumetric representation provides a mapping between positions and viewing directions to IR values for each of the different patterns of points of IR light from the new perspective; defining a synthesizing function to generate an enhanced image from the image; and computing the synthesizing function using a neural network trained based on a loss function between a predicted image generated by the neural network and a ground truth image captured by a ground truth camera during training.
A method, comprising: obtaining input magnetic resonance, MR, data using at least one radio-frequency, RF, coil of a magnetic resonance imaging, MRI, system ; and generating an MR image from the input MR data at least in part by suppressing at least one artefact in the input MR data , wherein the at least one artefact comprises RF interference, and wherein the generating comprises: performing a reconstruction step by generating an image in an image domain from the input MR data ; characterized in that the suppressing comprises: using a neural network model to suppress the RF interference by processing the input MR data before the reconstruction step in a domain other than the image domain. obtaining input magnetic resonance, MR, data using at least one radio-frequency, RF, coil of a magnetic resonance imaging, MRI, system ; and generating an MR image from the input MR data at least in part by suppressing at least one artefact in the input MR data , wherein the at least one artefact comprises RF interference, and wherein the generating comprises: performing a reconstruction step by generating an image in an image domain from the input MR data ; characterized in that the suppressing comprises: using a neural network model to suppress the RF interference by processing the input MR data before the reconstruction step in a domain other than the image domain. performing a reconstruction step by generating an image in an image domain from the input MR data ; characterized in that the suppressing comprises: using a neural network model to suppress the RF interference by processing the input MR data before the reconstruction step in a domain other than the image domain.
A system for assisting the motion of or supporting a body of a mammal, such system comprising: (a) a flexible pressure-tight suit configured to be worn over at least one part of the mammal's body having at least one opening for inserting the body part into the suit; (b) means for providing a pressure-tight seal between the suit and the body and connected adjacent to the opening of the suit; (c) inlet means in the suit for introduction of at least one source of positive pressure or vacuum to the interior of the suit between the mammal body and the suit to create a differential pressure condition between a positive pressure or vacuum condition inside the suit and an atmospheric pressure condition outside the suit; (d) external support means separate from the suit connected to the suit for counteracting a downwards force applied to the suit when it is placed under the differential pressure condition; (e) whereby the differential pressure condition contained inside the suit exerts an upwards force upon the body part to offload a portion of the weight of the body to the external support means. (a) a flexible pressure-tight suit configured to be worn over at least one part of the mammal's body having at least one opening for inserting the body part into the suit; (b) means for providing a pressure-tight seal between the suit and the body and connected adjacent to the opening of the suit; (c) inlet means in the suit for introduction of at least one source of positive pressure or vacuum to the interior of the suit between the mammal body and the suit to create a differential pressure condition between a positive pressure or vacuum condition inside the suit and an atmospheric pressure condition outside the suit; (d) external support means separate from the suit connected to the suit for counteracting a downwards force applied to the suit when it is placed under the differential pressure condition; (e) whereby the differential pressure condition contained inside the suit exerts an upwards force upon the body part to offload a portion of the weight of the body to the external support means.
A lithographic printing plate precursor, comprising: a support; and an image-recording layer as an outermost surface layer on the support, wherein the image-recording layer comprises a hydrophilic polymer, an ion intensity derived from the hydrophilic polymer has a maximum value I1, the ion intensity being measured by a time-of-flight secondary ion mass spectrometry in such a manner that cutting is carried out from an image-recording layer surface in a direction of the support by an Ar gas cluster ion beam method, a ratio d0/d1 of a thickness d0 of the image-recording layer to a depth d1 from an outermost layer at which the 11 is obtained is 2.0 or more, and a ratio 11/10 of the 11 to an ion intensity 10 derived from the hydrophilic polymer at a depth from the outermost layer of the d0 is 1.5 or more. a support; and an image-recording layer as an outermost surface layer on the support, wherein the image-recording layer comprises a hydrophilic polymer, an ion intensity derived from the hydrophilic polymer has a maximum value I1, the ion intensity being measured by a time-of-flight secondary ion mass spectrometry in such a manner that cutting is carried out from an image-recording layer surface in a direction of the support by an Ar gas cluster ion beam method, a ratio d0/d1 of a thickness d0 of the image-recording layer to a depth d1 from an outermost layer at which the 11 is obtained is 2.0 or more, and a ratio 11/10 of the 11 to an ion intensity 10 derived from the hydrophilic polymer at a depth from the outermost layer of the d0 is 1.5 or more.