mhurhangee/ep-ind-claims huggingface dataset:
Thermoplastic resin expanded beads comprising: a conductive carbon material; and a flame retardant, the thermoplastic resin expanded beads each comprising a cover layer in an expanded state and made of a thermoplastic resin; and a core layer made of a thermoplastic resin, a mass ratio of the cover layer to the core layer being in a range of 99: 1 to 50: 50, the conductive carbon material being one or more selected from a carbon nanotube, a carbon nanofiber, a carbon nanostructure, and graphene, a content (Xi) of the conductive carbon material in the core layer being 1% by mass or more and 30% by mass or less, a content (Xo) of the conductive carbon material in the cover layer being 3% by mass or less, 0 included, a content (Yo) of the flame retardant in the cover layer being 5% by mass or more and 25% by mass or less, the content (Xo) of the conductive carbon material in the cover layer being lower than the content (Xi) of the conductive carbon material in the core layer, and a ratio (Yi/Xi) of a content (Yi) of the flame retardant in the core layer to the content (Xi) of the conductive carbon material in the core layer being 0.2 or more.
A vest which enables the user to control their buoyancy in the water comprising: a neck opening; a pair of arm holes; a front side with an exterior and interior surface and one or more pockets on the exterior surface; a back side with an exterior and interior surface and one or more pockets on the exterior surface; and foam inserts which are sized to fit in the pockets and control the amount of buoyancy of the user; characterized in that the foam inserts are made of different densities and thicknesses, whereby a user can selectively place foam inserts of different densities and thicknesses in the pockets in order to adjust the buoyancy of the vest; and in that the vest is constructed from one or more layers of neoprene, wherein the front and back side of the vest each have a right and a left panel comprising two layers of neoprene and the pockets are between the two layers of neoprene. a neck opening; a pair of arm holes; a front side with an exterior and interior surface and one or more pockets on the exterior surface; a back side with an exterior and interior surface and one or more pockets on the exterior surface; and foam inserts which are sized to fit in the pockets and control the amount of buoyancy of the user; characterized in that the foam inserts are made of different densities and thicknesses, whereby a user can selectively place foam inserts of different densities and thicknesses in the pockets in order to adjust the buoyancy of the vest; and in that the vest is constructed from one or more layers of neoprene, wherein the front and back side of the vest each have a right and a left panel comprising two layers of neoprene and the pockets are between the two layers of neoprene.
Electrical heating device with a plurality of electrical heating elements, which are held by a housing and abut heat conducting surfaces, over which a medium to be heated flows, wherein the electrical heating elements comprise contact lugs for the electrical connection, wherein contact lugs, arranged essentially at the same height, are connected through a plate element comprising conductor strips and contact lug receptacles formed for the electrical contact of the contact lugs, characterised in that the plate element comprises a carrier plate and a stamped out metal plate and that the carrier plate and the stamped out metal plate are connected together.
A method of producing a cell population comprising human PDX1-positive endoderm cells, said method comprising the steps of: culturing a population of pluripotent human cells in the presence of exogenous activin A; and continuing culturing the cell population in the presence of retinoic acid, thereby producing a cell population comprising human PDX1-positive endoderm cells, wherein said PDX1-positive endoderm cells are multipotent cells that can differentiate into cells, tissues or organs derived from the anterior portion of the gut tube. culturing a population of pluripotent human cells in the presence of exogenous activin A; and continuing culturing the cell population in the presence of retinoic acid, thereby producing a cell population comprising human PDX1-positive endoderm cells, wherein said PDX1-positive endoderm cells are multipotent cells that can differentiate into cells, tissues or organs derived from the anterior portion of the gut tube.
A water soluble antimicrobial polyacrylate silver salt, wherein the polyacrylate silver salt comprises sodium carboxylic group and silver carboxylic group in its molecular chain, and wherein the molar ratio of silver carboxylic group to sodium carboxylic group is lower than 77/23.
A pulsation damper comprising: - a first connector and a second connector, each arranged to be connected into a fluid flow line in such a manner that fluid is received in the pulsation damper from the fluid flow line via the first or the second connector, and fluid is delivered to the fluid flow line from the pulsation damper via the second or first connector, and - a first tube having a first end being fluidly connected to the first connector and a second end arranged opposite the first end, characterized in that the pulsation damper further comprises: - a second tube, the first tube being arranged inside the second tube, the second tube having a closed end, wherein the second end of the first tube is arranged inside the second tube at a distance from the closed end of the second tube, the first tube being fluidly connected to the second tube, via the second end of the first tube, and the second tube being fluidly connected to the second connector, wherein the pulsation damper defines a fluid flow path through the pulsation damper from the first or second connector to the second or first connector, via the first tube and the second tube. - a first connector and a second connector, each arranged to be connected into a fluid flow line in such a manner that fluid is received in the pulsation damper from the fluid flow line via the first or the second connector, and fluid is delivered to the fluid flow line from the pulsation damper via the second or first connector, and - a first tube having a first end being fluidly connected to the first connector and a second end arranged opposite the first end, - a second tube, the first tube being arranged inside the second tube, the second tube having a closed end, wherein the second end of the first tube is arranged inside the second tube at a distance from the closed end of the second tube, the first tube being fluidly connected to the second tube, via the second end of the first tube, and the second tube being fluidly connected to the second connector,
Method for estimating an inter-node distance between a sender node and a receiver node belonging to a network comprising a plurality of nodes arranged along towed acoustic linear antennas (20a-20e), said sender node and said receiver node being situated on two different towed acoustic linear antennas (20a-20e), an acoustic signal being transmitted from the sender node to the receiver node through an underwater acoustic channel, characterized in that the method comprises a step (83-87; 93-94; 103-104) of estimating the inter-node distance as a function of an estimate of a sound speed profile of the underwater acoustic channel, said sound speed profile depending on depth, said step of estimating the inter-node distance comprises steps of: - obtaining (83, 84) a travel time of the acoustic signal from the sender node to the receiver node, immersion depths of the sender node and the receiver node, a sound speed at the immersion depth of the sender node and said estimate of the sound speed profile; - determining an approximated inter-node distance (D AB), corresponding to a straight line path between the sender node and the receiver node, as a function of the travel time and the sound speed at the immersion depth of the sender node; - estimating the sound propagation between the sender node and the receiver node, using a sound propagation model and knowing the immersion depths of the sender node and the receiver node, the approximated inter-node distance and the estimate of the sound speed profile, said step of estimating the sound propagation providing an arc length (L AB) of an arc path between the sender node and the receiver node; and - determining an estimate of the inter-node distance (D' AB), as the difference between said approximated inter-node distance and a distance estimation error defined as the difference between said arc length and said approximated inter-node distance. - obtaining (83, 84) a travel time of the acoustic signal from the sender node to the receiver node, immersion depths of the sender node and the receiver node, a sound speed at the immersion depth of the sender node and said estimate of the sound speed profile; - determining an approximated inter-node distance (D AB), corresponding to a straight line path between the sender node and the receiver node, as a function of the travel time and the sound speed at the immersion depth of the sender node; - estimating the sound propagation between the sender node and the receiver node, using a sound propagation model and knowing the immersion depths of the sender node and the receiver node, the approximated inter-node distance and the estimate of the sound speed profile, said step of estimating the sound propagation providing an arc length (L AB) of an arc path between the sender node and the receiver node; and - determining an estimate of the inter-node distance (D' AB), as the difference between said approximated inter-node distance and a distance estimation error defined as the difference between said arc length and said approximated inter-node distance.
A mobile station adapted to communicate with a base station apparatus using an OFDM scheme in downlink, the mobile station comprising: a receiver adapted to receive a multi-carrier signal from the base station apparatus; a first detector adapted to detect a primary sync channel included in the multi-carrier signal received by the receiver; and a second detector adapted to detect a secondary sync channel included in the multi-carrier signal received by the receiver, based on the primary sync channel detected by the first detector, characterized in that the first detector is adapted to detect the primary sync channel that is generated based on a primary sync channel sequence number, and wherein the second detector is adapted to detect the secondary sync channel such that, in the secondary sync channel, two sequences to be alternately arranged in a frequency domain are scrambled by using a scramble sequence amongst different scramble sequences, and the scramble sequence used for scrambling the secondary sync channel corresponds one to one to the primary sync channel sequence number. a receiver adapted to receive a multi-carrier signal from the base station apparatus; a first detector adapted to detect a primary sync channel included in the multi-carrier signal received by the receiver; and a second detector adapted to detect a secondary sync channel included in the multi-carrier signal received by the receiver, based on the primary sync channel detected by the first detector, characterized in that the first detector is adapted to detect the primary sync channel that is generated based on a primary sync channel sequence number, and wherein the second detector is adapted to detect the secondary sync channel such that, in the secondary sync channel, two sequences to be alternately arranged in a frequency domain are scrambled by using a scramble sequence amongst different scramble sequences, and the scramble sequence used for scrambling the secondary sync channel corresponds one to one to the primary sync channel sequence number.
A personal care product system comprising: a stand; a first stand permanent docking magnet positioned within the stand; a stand inductive charging coil positioned within the stand; a handle removably mounted to the stand; a rechargeable battery positioned within the handle; a first handle permanent docking magnet positioned within the handle configured to generate an attraction force sufficient to hold the handle to the stand when placed in proximity to the first stand permanent docking magnet; a handle inductive charging coil positioned within the handle, wherein the stand inductive charging coil is configured to generate a magnetic field that penetrates the handle inductive charging coil to charge the rechargeable battery when placed in proximity to the handle inductive charging coil; characterised in that the system further comprises a handle flux guiding member (114, 214, 314, 414) having at least a portion positioned within the handle inductive charging coil; and a stand flux guiding member (162, 262, 362) having at least a portion positioned within the stand inductive charging coil. a stand; a first stand permanent docking magnet positioned within the stand; a stand inductive charging coil positioned within the stand; a handle removably mounted to the stand; a rechargeable battery positioned within the handle; a first handle permanent docking magnet positioned within the handle configured to generate an attraction force sufficient to hold the handle to the stand when placed in proximity to the first stand permanent docking magnet; a handle inductive charging coil positioned within the handle, wherein the stand inductive charging coil is configured to generate a magnetic field that penetrates the handle inductive charging coil to charge the rechargeable battery when placed in proximity to the handle inductive charging coil; characterised in that the system further comprises a handle flux guiding member (114, 214, 314, 414) having at least a portion positioned within the handle inductive charging coil; and a stand flux guiding member (162, 262, 362) having at least a portion positioned within the stand inductive charging coil.
Method for producing a device for patient-specific individual anatomical drill channel placement during the fixing of artificial ligaments to the upper and lower leg in the context of anterior cruciate ligament reconstruction, having a probe for introduction via an arthroscopy portal into a joint and a target head which is provided at the distal end of the probe, wherein the target head comprises a target template which is individually produced using a 3D-imaging method and which is a negative image of the bone surface relief in the attachment region of the torn cruciate ligament to the upper leg or lower leg, wherein the target template comprises at least one passage for marking the drill channel which is intended to be produced on the bone and wherein at the proximal end of the probe a handle is provided for holding and positioning, having the following method steps: carrying out a 3D MRT or a 3D CT of the injured knee joint and the healthy knee joint in order to obtain 3D data, producing a 3D computer model of the injured joint and the healthy joint with the respective surface profile of the attachment of the individual cruciate ligament to the upper and lower leg using appropriate software, comparing the 3D computer model of the injured knee joint and the 3D computer model of the healthy knee joint, producing individual target templates and/or target heads, producing the device. carrying out a 3D MRT or a 3D CT of the injured knee joint and the healthy knee joint in order to obtain 3D data, producing a 3D computer model of the injured joint and the healthy joint with the respective surface profile of the attachment of the individual cruciate ligament to the upper and lower leg using appropriate software, comparing the 3D computer model of the injured knee joint and the 3D computer model of the healthy knee joint, producing individual target templates and/or target heads, producing the device.
Spatial filter measurement arrangement having at least one sensor (4, 5; 41 I -41 IV; 51, 52) and a spatial filter, wherein electromagnetic radiation, in particular light, which is transmitted or reflected by a measurement object which is moved past the spatial filter is imaged on the sensor (4, 5; 41 I -41 IV; 51, 52) by means of the spatial filter, wherein a time modulation of the electromagnetic radiation is detected in order to measure one or more properties of the moving measurement object, wherein the spatial filter is constructed as a mirror array, in particular as a micromirror array, characterised in that the mirror array has movable mirror elements (21-21"') for producing a grid structure.
A controller, for a dimmable LED lighting circuit comprising an arrangement of at least one LED of a first type connected in series with at least one LED of a second type, the controller comprising a control circuit and a bypass circuit and being operable to direct a current comprising a first part (I W) and a second part (I B) through the at least one LED of the first type, wherein the controller is configured to direct the first part through the at least one LED of the second type and direct the second part through the bypass circuit, wherein the control circuit is configured to adjust the ratio between the first part and the second part in dependence on a dimming level of the LED lighting circuit; characterised in that the control circuit is operable to measure the first part and the second part, and comprises: a first pair of transistors (Q1A, Q1B) arranged as a first error amplifier operable to adjust the ratio between the first part and the second part over a first range of dimming levels, and a second pair of transistors (Q1B, Q2A) arranged as a second error amplifier and operable to adjust the ratio between the first part and the second part over a second range of dimming levels, wherein the first and second error amplifiers having a one transistor (Q1B) in common. a first pair of transistors (Q1A, Q1B) arranged as a first error amplifier operable to adjust the ratio between the first part and the second part over a first range of dimming levels, and a second pair of transistors (Q1B, Q2A) arranged as a second error amplifier and operable to adjust the ratio between the first part and the second part over a second range of dimming levels, wherein the first and second error amplifiers having a one transistor (Q1B) in common.
Dovetail connection for releasably connecting two construction elements (20,6), comprising a female part and a male part which are each mountable on one of the construction elements (18,6) and which are both provided with dovetail profiles (14,15/2,3) which can mutually engage with a sliding movement for the purpose of forming the dovetail connection and which taper in the sliding direction, which dovetail connection is provided with locking means (18,19/8,9) for locking the connection against movement in the sliding direction in the mutually engaged position, characterized in that the locking means (18,19/8,9) are formed by at least one pin at one of the dovetail parts for coupling and at least one hole in the other dovetail part for coupling, this pin being movable in a formed dovetail connection in a direction perpendicularly of the sliding plane and in the direction of one of the holes so as to fall into this hole for the purpose of locking the dovetail connection, and being movable in opposite direction so as to move out of this hole again for the purpose of unlocking the dovetail connection.
A pneumatic tire comprising at least one resonator (300, 324) on an inner periphery of the tire, the resonator comprising a tube with an opening, and a cavity connected to the tube, characterized in that the opening is provided to penetrate outside of the tire.
A method comprising: detecting movement of a first virtual data container stored on a storage appliance to a predetermined location; and in response to the movement, performing a replication operation comprising communicating data between the storage appliance and a storage device other than the storage appliance, wherein the data identifies incremental differences between the first virtual data container and a second virtual data container stored on the storage device. detecting movement of a first virtual data container stored on a storage appliance to a predetermined location; and in response to the movement, performing a replication operation comprising communicating data between the storage appliance and a storage device other than the storage appliance, wherein the data identifies incremental differences between the first virtual data container and a second virtual data container stored on the storage device.
A streaming content processing method of a mobile terminal, the method comprising: establishing a communication channel with a network selected among a plurality of cellular communication networks and a short range communication network; detecting a playback request signal for playing a streaming content received through the communication channel; when no history information related to the streaming content exists at the mobile terminal, configuring a fixed bandwidth preset corresponding to the selected network as an available bandwidth of the streaming content; transmitting a download request for a data version corresponding to the fixed bandwidth to a server providing the streaming content; downloading the requested data from the server; and playing the streaming content of the downloaded data. establishing a communication channel with a network selected among a plurality of cellular communication networks and a short range communication network; detecting a playback request signal for playing a streaming content received through the communication channel; when no history information related to the streaming content exists at the mobile terminal, configuring a fixed bandwidth preset corresponding to the selected network as an available bandwidth of the streaming content; transmitting a download request for a data version corresponding to the fixed bandwidth to a server providing the streaming content; downloading the requested data from the server; and playing the streaming content of the downloaded data.
A plastic pallet with an upper part provided with outer and middle female foot parts and runners (3, 3') provided with outer and middle male foot parts, wherein the male foot parts (5, 5') of the runners (3, 3') are pushed into the female foot parts (4, 4') of the upper part, wherein the male foot parts (5, 5') form feet (21, 21') with the female foot parts (4, 4'), wherein the foot parts (4, 4') of the upper part and the foot parts (5, 5') of the runners (3, 3') are fastened to one another by means of snap connections, wherein each male foot part (5, 5') comprises at least two snap hooks, which are arranged in pairs mirror-symmetrically and which each comprise a hook head with undercuts, a snap arm and a rear side, wherein the undercuts of the hook heads face away from one another and the rear sides of the snap hooks face towards one another, wherein each female foot part (4, 4') comprises at least one snap-in element, into which the hook heads are snapped and which each form a snap connection, wherein an intermediate space is arranged between the rear sides of the snap hooks, and wherein the female foot parts (4, 4') are connected in one piece with the upper part, characterised in that each female foot part (4, 4') comprises at least one safety element with at least one free end in each case, wherein the safety element is connected in one piece with the female foot part (4, 4'), and wherein the safety element projects into the intermediate space between the rear sides of the snap hooks, so that the snap hooks remain in the snapped-in position.