mhurhangee/patent-ind-claim-en huggingface dataset:
A cross-linkable hydrogel composition comprising an aqueous base carrier composition and a cross-linkable hydrogel precursor, wherein the aqueous base carrier composition comprises one or more polymers and one or more nanoparticles, wherein the one or more polymers are selectively adsorbed to the one or more nanoparticles, and wherein the one or more polymers and the one or more nanoparticles form a shear-thinning and self-healing hydrogel and wherein the one or more polymers and the one or more nanoparticles are each comprised in the cross-linkable hydrogel composition in a concentration at which neither the one or more polymers nor the nanoparticles, taken alone, form a hydrogel, characterized in that the cross-linkable hydrogel precursor is not selectively adsorbed to the one or more nanoparticles and in that the cross-linkable hydrogel precursor and the one or more nanoparticles do not form a shear-thinning and self-healing hydrogel and further in that the cross-linkable hydrogel precursor is comprised in the cross-linkable hydrogel composition in a concentration at which the cross-linkable hydrogel precursor, taken alone, does not form a hydrogel.
Hoist, in particular cable or chain hoist, having a lifting mechanism for lifting and lowering a load, comprising a housing , which receives a motor, which is connected to a gear mechanism driving a shaft , which is rotatably mounted in the housing and on which a reel is arranged, which receives a cable or a chain , which is guided through an opening of the housing and which has a load hook at the end, wherein a measuring device for the continuous detection of the load applied to the load hook is provided in the housing , wherein the measuring device comprises a distance sensor , which is attached to the housing at a distance from a measuring object connected to the shaft or the housing which is defined when the cable or chain is unloaded, characterised in that the distance sensor is connected to a computer module , which is set up to determine the applied load on the basis of the distance transmitted by the distance sensor .
An attachment arrangement for attaching a connector to an administration port of a fluid container, comprising: a housing having a receiving chamber defining a first end , the receiving chamber having an insertion opening configured to receive the administration port; a compressible outer housing surface defining at least one axial slit , the outer housing surface (i) comprising threads having a pitch diameter that increases towards the first end , and (ii) configured to flex outwardly upon insertion of the administration port into the receiving chamber , and to be compressed inwardly towards a center of the receiving chamber to secure the administration port in the housing ; a housing compression element mounted on the outer housing surface and configured to interact with the threads such that movement of the housing compression element towards the first end of the housing compresses the housing inwardly toward the center of the receiving chamber; and a needle at least partially within the housing and configured to pierce the administration port upon insertion of the administration port into the housing . a housing having a receiving chamber defining a first end , the receiving chamber having an insertion opening configured to receive the administration port; a compressible outer housing surface defining at least one axial slit , the outer housing surface (i) comprising threads having a pitch diameter that increases towards the first end , and (ii) configured to flex outwardly upon insertion of the administration port into the receiving chamber , and to be compressed inwardly towards a center of the receiving chamber to secure the administration port in the housing ; a housing compression element mounted on the outer housing surface and configured to interact with the threads such that movement of the housing compression element towards the first end of the housing compresses the housing inwardly toward the center of the receiving chamber; and a needle at least partially within the housing and configured to pierce the administration port upon insertion of the administration port into the housing .
A method of controlling a building automation system, the building automation system including a plurality of components and each of the plurality of components associated with point data, the method being operated by a building automation system mobile application of a mobile computing device and comprising: detecting the building automation system and connecting the mobile computing device and a building automation network of the building automation system to establish a communication between the mobile computing device and the building automation network of the building automation system; characterized in that the method further comprises: querying, by the mobile computing device autonomously, point data from the plurality of components of the building automation system via the building automation network; determining components of the building automation system and connections between components of the building automation system based on the point data received from the plurality of components and an equipment library file and generating an initial model of the building automation system, the model including a graphical model that illustrates a physical configuration of the building automation system and a mathematical model that represents an operation of the building automation system, conducting an impulse response testing on the determined components, generating a revised model of the initial model of the building automation system based on the result of the impulse response testing; determining at least one optimization strategy for the revised model of the of the building automation system based on a selection of goals for the building automation system, simulating outputs for the building automation system for the at least one optimization strategy and displaying the simulated outputs on an user interface of the mobile computing device . querying, by the mobile computing device autonomously, point data from the plurality of components of the building automation system via the building automation network; determining components of the building automation system and connections between components of the building automation system based on the point data received from the plurality of components and an equipment library file and generating an initial model of the building automation system, the model including a graphical model that illustrates a physical configuration of the building automation system and a mathematical model that represents an operation of the building automation system, conducting an impulse response testing on the determined components, generating a revised model of the initial model of the building automation system based on the result of the impulse response testing; determining at least one optimization strategy for the revised model of the of the building automation system based on a selection of goals for the building automation system, simulating outputs for the building automation system for the at least one optimization strategy and displaying the simulated outputs on an user interface of the mobile computing device .
An electronic device , comprising: a housing ; a wrist band coupled to the housing ; a display that is coupled to the housing and that has pixels; and control circuitry configured to use the display to continuously display a watch face image , the watch face image having hour indices distributed circumferentially around the watch face image , characterized in that the control circuitry is further configured to dynamically shift a position of the hour indices on the display , wherein dynamically shifting the position of the hour indices on the display comprises shifting radial positions of the hour indices towards and away from a center of the watch face image while maintaining fixed circumferential positions of the hour indices . a housing ; a wrist band coupled to the housing ; a display that is coupled to the housing and that has pixels; and control circuitry configured to use the display to continuously display a watch face image , the watch face image having hour indices distributed circumferentially around the watch face image , characterized in that the control circuitry is further configured to dynamically shift a position of the hour indices on the display , wherein dynamically shifting the position of the hour indices on the display comprises shifting radial positions of the hour indices towards and away from a center of the watch face image while maintaining fixed circumferential positions of the hour indices .
A shooting accessory configured to use laser beams to set a safe shooting angle, wherein the shooting accessory comprises a holder and two laser pointers mounted relative to the holder and each other , wherein the holder includes one or more mounts/locators for each laser pointer, wherein the mounts/locators are configured to locate and support the laser pointers relative to each other at a predetermined angle and to prevent movement of the laser pointers relative to each other such that the laser pointers are operable to emit laser beams to define a vertex having an included angle, which corresponds with the predetermined angle defined by the relative position of the mounts/locators wherein the holder is a hollow casing defining a single interior space , wherein the two laser pointers are housed within the single interior space and wherein the one or more internal mounts/locators are positioned inside the single interior space.
A system for folding a carrier with at least one attached card, the system characterized by a paper inlet for receiving a carrier having a first portion and a second portion, the first portion of the carrier comprising at least one card attached thereto; a paper path defined, in part, by an interface of one or more drive belts operably coupled to a drive motor configured to cause the one or more drive belts to advance the carrier along the paper path from the paper inlet ; a paper guide positioned along the paper path downstream from the paper inlet ; a feeding nip formed at an interface of a first roller and a second roller and positioned downstream from the paper guide and configured to receive the first portion of the carrier as the carrier advances along the paper path ; a folding nip formed at an interface of the second roller and a third roller and downstream from the feeding nip ; and a movable fold chute configured to transition between a first position and a second position, wherein when in the first position, an inner lumen of the fold chute is aligned with the feeding nip and configured to receive at least the first portion of the carrier from the feeding nip without the attached card being bent; and when in the second position, movement of the fold chute causes a buckle to be formed in the second portion of the carrier and the inner lumen of the fold chute is aligned with the folding nip such that the buckled second portion of the carrier is ingested into the folding nip to thereby create a fold in the second portion without folding the at least one attached card . a paper inlet for receiving a carrier having a first portion and a second portion, the first portion of the carrier comprising at least one card attached thereto; a paper path defined, in part, by an interface of one or more drive belts operably coupled to a drive motor configured to cause the one or more drive belts to advance the carrier along the paper path from the paper inlet ; a paper guide positioned along the paper path downstream from the paper inlet ; a feeding nip formed at an interface of a first roller and a second roller and positioned downstream from the paper guide and configured to receive the first portion of the carrier as the carrier advances along the paper path ; a folding nip formed at an interface of the second roller and a third roller and downstream from the feeding nip ; and a movable fold chute configured to transition between a first position and a second position, wherein when in the first position, an inner lumen of the fold chute is aligned with the feeding nip and configured to receive at least the first portion of the carrier from the feeding nip without the attached card being bent; and
A method of operating a controller, comprising: receiving a write request that is acknowledged upon receipt by a destination media controller without waiting for achievement of persistence of write data associated with the write request; determining whether an identifier of the destination media controller is already in a tracking structure; in response to determining that the identifier of the destination media controller is not already in the tracking structure, adding the identifier of the destination media controller to the tracking structure; and in response to determining that the identifier of the destination media controller is already in the tracking structure, declining to add the identifier of the destination media controller to the tracking structure; the method being characterized in that it further comprises: receiving a further write request to a further destination media controller; in response to determining that the tracking structure is full, generating a persistent write request in place of the further write request; and sending the persistent write request instead of the further write request to the further destination media controller, wherein the further destination media controller is to acknowledge the persistent write request in response to achieving persistence of write data associated with the further write request. receiving a write request that is acknowledged upon receipt by a destination media controller without waiting for achievement of persistence of write data associated with the write request; determining whether an identifier of the destination media controller is already in a tracking structure; in response to determining that the identifier of the destination media controller is not already in the tracking structure, adding the identifier of the destination media controller to the tracking structure; and in response to determining that the identifier of the destination media controller is already in the tracking structure, declining to add the identifier of the destination media controller to the tracking structure; receiving a further write request to a further destination media controller; in response to determining that the tracking structure is full, generating a persistent write request in place of the further write request; and sending the persistent write request instead of the further write request to the further destination media controller, wherein the further destination media controller is to acknowledge the persistent write request in response to achieving persistence of write data associated with the further write request.
A method of receiving a device-to-device, D2D, discovery signal by a user equipment, UE , with one or more Receive, RX, chains on Frequency Division Duplex, FDD, carriers in a wireless communication system, the method comprising: receiving, from an eNodeB , information for configuring a gap for the D2D signal and securing a time necessary for frequency band switching operation of the one or more RX chains which are less than a number of RX chains necessary to perform simultaneous reception of a downlink signal and the D2D signal, wherein the UE does not receive the downlink signal in the gap during reception of the D2D signal or a D2D synchronization signal related to reception of the D2D signal, wherein the D2D signal includes at least one of D2D data and D2D discovery signal, and wherein the gap is configured on subframes belonging to a D2D discovery resource pool indicating discovery subframes as well as two or more subframes preceding and following the subframes belonging the D2D discovery resource pool. receiving, from an eNodeB , information for configuring a gap for the D2D signal and securing a time necessary for frequency band switching operation of the one or more RX chains which are less than a number of RX chains necessary to perform simultaneous reception of a downlink signal and the D2D signal, wherein the UE does not receive the downlink signal in the gap during reception of the D2D signal or a D2D synchronization signal related to reception of the D2D signal, wherein the D2D signal includes at least one of D2D data and D2D discovery signal, and wherein the gap is configured on subframes belonging to a D2D discovery resource pool indicating discovery subframes as well as two or more subframes preceding and following the subframes belonging the D2D discovery resource pool.
A microneedle array assembly (71;171), comprising: a microneedle array (28; 128) comprising a base having opposite upstream and downstream sides and defining a plurality of apertures extending between the upstream and downstream sides ; and a plurality of microneedles (31; 131) extending from the downstream side ; wherein each of the plurality of apertures are defined in the base proximate each of the plurality of microneedles (31; 131), and characterized in that the resistance to flow through the upstream side of the base is at least about 30 times greater than resistance to flow through the microneedle array (28;128), wherein the at least about 30 times greater is a difference in the resistance to flow between the upstream side and the downstream side of the base. a microneedle array (28; 128) comprising a base having opposite upstream and downstream sides and defining a plurality of apertures extending between the upstream and downstream sides ; and a plurality of microneedles (31; 131) extending from the downstream side ; wherein each of the plurality of apertures are defined in the base proximate each of the plurality of microneedles (31; 131), and characterized in that the resistance to flow through the upstream side of the base is at least about 30 times greater than resistance to flow through the microneedle array (28;128), wherein the at least about 30 times greater is a difference in the resistance to flow between the upstream side and the downstream side of the base.
A container, in particular a plastic fuel container, having a stiffening device which penetrates the interior of the container between opposite first and second wall parts of the container and couples the wall parts 10, 34) to each other, whereby the container can be subjected to increased interior pressure without damage, wherein the stiffening device comprises a first stiffening element arranged on the first wall part and a second stiffening element arranged on the second wall part , wherein the first and second stiffening elements have interacting coupling parts and wherein the second stiffening element can be connected to the first stiffening element with high tensile strength and, in the connected state, seals an opening in the second wall part by means of a flange cover , characterized in that the first stiffening element is fixed via an interposed annular body to an undercut part of the first wall part .
A fuel supply comprising a fuel gauge adapted for use with the fuel supply and an electronic equipment powered by a fuel cell, the fuel cell comprising an electrical circuit, the fuel supply further comprising a liner containing a liquid fuel, wherein said fuel gauge remains in thermal contact with the remaining liquid fuel as the liquid fuel is withdrawn from the fuel supply , wherein said fuel gauge is a thermistor or a thermocouple having an electrical resistance that is readable by the electrical circuit, wherein the electrical resistance of the thermistor or thermocouple is related to the amount of the liquid fuel remaining in the fuel supply , characterized in that the fuel gauge is located adjacent to the liner and the liner is positioned within the fuel supply .
An audio signal reconstruction method comprising: obtaining signal magnitudes according to frequencies in a current frame by decoding a bitstream comprising the audio signal; determining a range of a signal magnitude at a first frequency, based on signal magnitudes corresponding to frequencies adjacent to the first frequency; obtaining a reconstructed signal magnitude at the first frequency by applying a machine learning model to the range of signal magnitude at the first frequency and the signal magnitudes according to the frequencies; and decoding the audio signal from the current frame of the bitstream, based on the reconstructed signal magnitude at the first frequency. obtaining signal magnitudes according to frequencies in a current frame by decoding a bitstream comprising the audio signal; determining a range of a signal magnitude at a first frequency, based on signal magnitudes corresponding to frequencies adjacent to the first frequency; obtaining a reconstructed signal magnitude at the first frequency by applying a machine learning model to the range of signal magnitude at the first frequency and the signal magnitudes according to the frequencies; and decoding the audio signal from the current frame of the bitstream, based on the reconstructed signal magnitude at the first frequency.
A recombinant human IgG1 Fc-containing molecule, comprising a CH2 domain that comprises an amino acid sequence that is at least 80% identical to the amino acid sequence of SEQ ID NO: 60 and in which the amino acid at position 265 is different from aspartic acid (D), the amino acid at position 297 is different from asparagine (N), and the amino acid at position 329 is different from proline (P), wherein the molecule retains binding to FcRn, and wherein the molecule has at least 20-fold reduced binding to Clq and to at least one Fcγ receptor (FcγR), as compared to a wild-type human IgG1 Fc-containing molecule that comprises D at position 265, N at position 297 and P at position 329, and wherein the numbering is indicated by the EU index as in Kabat. wherein the molecule retains binding to FcRn, and wherein the molecule has at least 20-fold reduced binding to Clq and to at least one Fcγ receptor (FcγR), as compared to a wild-type human IgG1 Fc-containing molecule that comprises D at position 265, N at position 297 and P at position 329, and wherein the numbering is indicated by the EU index as in Kabat.
Temperature measuring device for determining a medium temperature via the temperature of a measuring point on a surface enclosing the medium, comprising at least one measuring sensor and at least one reference sensor and a measured value processing means , which is connected to the measuring sensor via a feed line and to the reference sensor via a feed line , wherein the at least one measuring sensor and the at least one reference sensor are arranged along a main thermal connecting path between the surface enclosing the medium and the surroundings, wherein the at least one measuring sensor is arranged close to the measuring point, and wherein the thermal resistance (R1) between the relevant measuring sensor and the at least one reference sensor is lower than the thermal resistance (R2) between the relevant reference sensor and the surroundings, characterized in that the main thermal connecting path between the surface enclosing the medium and the surroundings consists of the at least one measuring sensor and the feed line to the measuring sensor . the at least one measuring sensor and the at least one reference sensor are arranged along a main thermal connecting path between the surface enclosing the medium and the surroundings, wherein the at least one measuring sensor is arranged close to the measuring point, and wherein the thermal resistance (R1) between the relevant measuring sensor and the at least one reference sensor is lower than the thermal resistance (R2) between the relevant reference sensor and the surroundings, characterized in that the main thermal connecting path between the surface enclosing the medium and the surroundings consists of the at least one measuring sensor and the feed line to the measuring sensor .