mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a drive train of a hybrid vehicle having an internal combustion engine (VKM), an electric motor (EM) that can be operated as a motor and as a generator, and a transmission (G), wherein energy can be recovered when the vehicle is in overrun operation by the electric motor (EM) operating as a generator, wherein the transmission (G) comprises a freewheel-connected low forward gear that only transmits traction torque and at least one freewheel-free higher forward gear , wherein - when the freewheel-connected low forward gear is engaged and the vehicle transitions into overrun operation, or - when the driver of the vehicle requests a transition of the vehicle into overrun operation by selecting the freewheel-connected low forward gear , an overrun torque is set via the freewheel-free higher forward gear by the electric motor (EM) operating as a generator in order to recover energy, which overrun torque corresponds substantially to an overrun torque of a freewheel-free embodiment of the freewheel-connected low forward gear , characterized in that the drive train has a clutch (K0) between the internal combustion engine (VKM) and the electric motor (EM), wherein when the vehicle is being operated by the internal combustion engine, said internal combustion engine (VKM) continues to operate during the setting of the overrun torque via the freewheel-free higher forward gear by the electric motor (EM) operating as a generator in order to recover energy, but is decoupled by opening the clutch (K0), and the speed of the internal combustion engine (VKM) is held and/or set to a speed corresponding to the freewheel-connected low forward gear . - when the freewheel-connected low forward gear is engaged and the vehicle transitions into overrun operation, or - when the driver of the vehicle requests a transition of the vehicle into overrun operation by selecting the freewheel-connected low forward gear ,
A polyacrylic acid copolymer emulsion comprising, in parts by weight, components of: 19 to 26 parts of water, 0.5 to 5 parts of the solubilizer, 0.1 to 0.5 part of the dispersant, 0.1 to 0.5 part of the wetting agent, 28 to 30 parts of the acrylic emulsion, 0.1 to 1 part of the film-forming additive, 0.2 to 0.3 part of the preservative, 0.5 to 0.6 part of the silane coupling agent, 0.5 to 0.6 part of the ultraviolet absorbent, 40 to 45 parts of the pigment, 0.1 to 0.5 part of the antimildew agent, 0.1 to 0.2 part of the defoamer, and 0.1 to 0.8 part of the leveling agent.
A self-propelling method, comprising: providing an impulse to a first magnet with at least one electromagnetic pulse generator coupled to a rigid vehicle platform , the first magnet having angular momentum about a first point subsequent to the impulse; and inducing a change in angular momentum of a second magnet in response to magnetic attraction with the first magnet , the second magnet rotating about a second point, wherein the inducing a change in angular momentum of the second magnet results in a transferred linear impulse of the rigid vehicle platform in a first direction, characterised in that the first and second magnets are rotatably coupled to the rigid vehicle platform through respective tethers capable of transferring force through tension at the first and second points. providing an impulse to a first magnet with at least one electromagnetic pulse generator coupled to a rigid vehicle platform , the first magnet having angular momentum about a first point subsequent to the impulse; and inducing a change in angular momentum of a second magnet in response to magnetic attraction with the first magnet , the second magnet rotating about a second point, wherein the inducing a change in angular momentum of the second magnet results in a transferred linear impulse of the rigid vehicle platform in a first direction, characterised in that the first and second magnets are rotatably coupled to the rigid vehicle platform through respective tethers capable of transferring force through tension at the first and second points.
A collapsible insulating device kit comprising a collapsible insulating device and a container, the collapsible insulating device comprising: a base , a flexible inner liner defining an interior cavity, an opening at a top of the flexible inner liner , and a flexible layer covering the flexible inner liner ; the base , the flexible inner liner , and the flexible layer are configured to be assembled into the collapsible insulating device, and the base , the flexible inner liner , and the flexible layer are configured to be detached from one another and placed into the container; the interior cavity defines a volumetric capacity in the assembled collapsible insulating device, and the volumetric capacity of the collapsible insulating device is configured to be larger than a volume of the container; and the container defines a length, a height, and a width, wherein the width of the container is less than a diameter of the assembled collapsible insulating device; the collapsible insulating device further comprises a flexible exterior wall , and characterized in that the base comprises an angled rim to allow for assembly of the flexible exterior wall into the collapsible insulating device; the angled rim having an upper surface providing a higher point and a plurality of lower points, the higher point and the plurality of lower points of the upper surface contained in a plane that is intersected by a central axis of the base , wherein the angled rim allows the flexible exterior wall to be placed over the higher point first and then subsequently flexed around the lower points to install the flexible exterior wall . a base , a flexible inner liner defining an interior cavity, an opening at a top of the flexible inner liner , and a flexible layer covering the flexible inner liner ; the base , the flexible inner liner , and the flexible layer are configured to be assembled into the collapsible insulating device, and the base , the flexible inner liner , and the flexible layer are configured to be detached from one another and placed into the container; the interior cavity defines a volumetric capacity in the assembled collapsible insulating device, and the volumetric capacity of the collapsible insulating device is configured to be larger than a volume of the container; and the container defines a length, a height, and a width, wherein the width of the container is less than a diameter of the assembled collapsible insulating device; the collapsible insulating device further comprises a flexible exterior wall , and characterized in that the base comprises an angled rim to allow for assembly of the flexible exterior wall into the collapsible insulating device; the angled rim having an upper surface providing a higher point and a plurality of lower points, the higher point and the plurality of lower points of the upper surface contained in a plane that is intersected by a central axis of the base , wherein the angled rim allows the flexible exterior wall to be placed over the higher point first and then subsequently flexed around the lower points to install the flexible exterior wall .
A method of forming an ultrasound transducer device, the method comprising: bonding a membrane to a substrate so as to form a sealed cavity therebetween; wherein an exposed surface located within the sealed cavity comprises a getter material, the getter material being electrically isolated from a bottom electrode of the cavity. bonding a membrane to a substrate so as to form a sealed cavity therebetween; wherein an exposed surface located within the sealed cavity comprises a getter material, the getter material being electrically isolated from a bottom electrode of the cavity.
A vehicle light assembly comprising: - a flexible lighting strip comprising a multitude of light-emitting diodes , wherein the flexible lighting strip is arranged to be bended around at least two, more preferred three linear independent axes; - an optically passive lighting strip terminator , wherein the lighting strip terminator is coupled to a lateral end surface of the flexible lighting strip , perpendicular to the longitudinal extension and the light output surface of the flexible lighting strip, wherein the lighting strip terminator is arranged such that light emitted by the light emitting diodes leaving the flexible lighting strip via the end surface of the flexible lighting strip is at least partly recycled; - a light guiding structure comprising a light receiving surface and a primary light emission surface , wherein the light receiving surface is arranged to receive light emitted by the flexible lighting strip and the lighting strip terminator , wherein the primary light emission surface is arranged to emit at least a part of the light received via the light receiving surface , and wherein the light receiving surface is arranged to define a bending of the flexible lighting strip ; - a coupling structure , wherein the coupling structure is arranged to mechanically couple the flexible lighting strip and the lighting strip terminator to the light receiving surface in accordance with the bending defined by the light receiving surface . - a flexible lighting strip comprising a multitude of light-emitting diodes , wherein the flexible lighting strip is arranged to be bended around at least two, more preferred three linear independent axes; - an optically passive lighting strip terminator , wherein the lighting strip terminator is coupled to a lateral end surface of the flexible lighting strip , perpendicular to the longitudinal extension and the light output surface of the flexible lighting strip, wherein the lighting strip terminator is arranged such that light emitted by the light emitting diodes leaving the flexible lighting strip via the end surface of the flexible lighting strip is at least partly recycled; - a light guiding structure comprising a light receiving surface and a primary light emission surface , wherein the light receiving surface is arranged to receive light emitted by the flexible lighting strip and the lighting strip terminator , wherein the primary light emission surface is arranged to emit at least a part of the light received via the light receiving surface , and wherein the light receiving surface is arranged to define a bending of the flexible lighting strip ; - a coupling structure , wherein the coupling structure is arranged to mechanically couple the flexible lighting strip and the lighting strip terminator to the light receiving surface in accordance with the bending defined by the light receiving surface .
Screw compressor for a utility vehicle, having a housing , wherein, in the operationally ready and assembled state of the screw compressor , an oil sump is provided in the housing , and wherein a magnet is arranged in the oil sump, characterized in that a baffle plate is arranged in the housing , and in that, in the operationally ready and assembled state of the screw compressor , the magnet is arranged below the baffle plate in the oil .
A method of handing over a User Equipment, UE, in a telecommunication network from a base station to a relay node, which relay node is arranged to relay traffic between a UE and said base station, wherein said method comprises the steps of: - receiving, by said relay node, from said base station a request for handing over said UE connected to said base station; characterized by the steps of: - transmitting, by said relay node, a QoS query request to a QoS Status module for querying whether a QoS parameter of said UE is below a QoS threshold for said relay node; - receiving, by said relay node, from said QoS Status module a QoS query acknowledgement thereby acknowledging that said QoS parameter of said UE is below said QoS threshold for said relay node; - transmitting, by said relay node, to said base station, based on said QoS query acknowledgement, a handover acknowledgement message thereby acknowledging the handover of said UE from said base station to said relay node. - receiving, by said relay node, from said base station a request for handing over said UE connected to said base station; - transmitting, by said relay node, a QoS query request to a QoS Status module for querying whether a QoS parameter of said UE is below a QoS threshold for said relay node; - receiving, by said relay node, from said QoS Status module a QoS query acknowledgement thereby acknowledging that said QoS parameter of said UE is below said QoS threshold for said relay node; - transmitting, by said relay node, to said base station, based on said QoS query acknowledgement, a handover acknowledgement message thereby acknowledging the handover of said UE from said base station to said relay node.
Electronic device for generation of an audible alarm or music, the electronic device including at least one coil or inductor (L1) and a buzzer, which includes at least one capacitor (Cb) connected in series with the coil, for generation of an audible alarm or music when the electronic device is actuated, the electronic device including in a positive feedback loop, a derivative circuit connected to a connection node between the coil (L1) and the capacitor (Cb) of the buzzer, to produce a derivative of the signal from the capacitor (Cb), and a comparator for comparing a derivative signal (Vder) at the output of the derivative circuit with a reference voltage (Ref), the comparator supplying an output signal (Vcomp) to the coil (L1) to amplify the signal across the capacitor (Cb), in order to generate at least one audible alarm.
A solid electrolyte , comprising: a lithium ion inorganic conductive layer ; and an amorphous phase on a surface of the lithium ion inorganic conductive layer , wherein the amorphous phase comprises a laser irradiation product of the lithium ion inorganic conductive layer, wherein the lithium ion inorganic conductive layer comprises at least one of a compound of Formula 1 and a compound of Formula 1a: Formula 1 Li 7-x M 1 x La 3-a M 2 a Zr 2-b M 3 b O 12 , and Formula 1a Li 7-x La 3-a M 2 a Zr 2-b M 3 b O 12 , wherein, in Formula 1, M 1 comprises at least one of gallium and aluminum, in Formulas 1 and 1a, M 2 comprises at least one calcium, strontium, cesium, and barium, M 3 comprises at least one of aluminum, tungsten, niobium, and tantalum, and 0≤x<3, 0≤a≤3, and 0≤b≤2. a lithium ion inorganic conductive layer ; and an amorphous phase on a surface of the lithium ion inorganic conductive layer , wherein the amorphous phase comprises a laser irradiation product of the lithium ion inorganic conductive layer, wherein the lithium ion inorganic conductive layer comprises at least one of a compound of Formula 1 and a compound of Formula 1a: Formula 1 Li 7-x M 1 x La 3-a M 2 a Zr 2-b M 3 b O 12 , and Formula 1a Li 7-x La 3-a M 2 a Zr 2-b M 3 b O 12 , wherein, in Formula 1, M 1 comprises at least one of gallium and aluminum, in Formulas 1 and 1a, M 2 comprises at least one calcium, strontium, cesium, and barium, M 3 comprises at least one of aluminum, tungsten, niobium, and tantalum, and 0≤x<3, 0≤a≤3, and 0≤b≤2.
A rating system, comprising: a shape sensing enabled device ; a database of possible shapes and sequences of shapes for the shape sensing enabled device , the possible shapes and sequences of shapes including a collection of poses of the shape sensing enabled device derived by appropriately performing a procedure with the shape sensing enabled device ; and a comparison module configured to compare real-time poses of the shape sensing enabled device with the collection of poses of the shape sensing enabled device in the database to output comparison feedback for a user of the shape sensing enabled device . a shape sensing enabled device ; a database of possible shapes and sequences of shapes for the shape sensing enabled device , the possible shapes and sequences of shapes including a collection of poses of the shape sensing enabled device derived by appropriately performing a procedure with the shape sensing enabled device ; and a comparison module configured to compare real-time poses of the shape sensing enabled device with the collection of poses of the shape sensing enabled device in the database to output comparison feedback for a user of the shape sensing enabled device .
A releasable clip assembly (1; 201; 301; 401) operable to secure a cushion to a supporting surface, the assembly (1; 201; 301; 401) comprising: a male component (6; 106; 206; 306; 406) which is received in a first axis in a chassis (3; 203) of a female component (2; 2a, 2b, 2c; 102; 202); the female component (2; 2a, 2b, 2c; 102; 202) comprising one or more engagement elements (9; 9a, 9b, 9c; 109; 209) configurable into an open configuration to admit the male component (6; 106; 206; 306; 406) and operable to return to a closed configuration to engage the received male component (6; 106; 206; 306; 406) to secure it in the chassis (3; 203) and two or more release elements (7; 7a, 7b, 7c, 7a-c, 7b-b, 7b-c, 7c-a; 107; 207) operable when actuated transversely to the first axis to allow the engagement elements (9; 9a, 9b, 9c; 109; 209) to be configured in the open configuration to release the male component (6; 106; 206; 306; 406) wherein an engagement element (9; 9a, 9b, 9c; 109; 209) comprises a flexible element connected between two release elements (7; 7a, 7b, 7c, 7a-c, 7b-b, 7b-c, 7c-a; 107; 207) so as to be configurable into the open configuration by bowing towards a periphery of the chassis (3; 203) under actuation of a release element (7; 7a, 7b, 7c, 7a-c, 7b-b, 7b-c, 7c-a; 107; 207). a male component (6; 106; 206; 306; 406) which is received in a first axis in a chassis (3; 203) of a female component (2; 2a, 2b, 2c; 102; 202); the female component (2; 2a, 2b, 2c; 102; 202) comprising one or more engagement elements (9; 9a, 9b, 9c; 109; 209) configurable into an open configuration to admit the male component (6; 106; 206; 306; 406) and operable to return to a closed configuration to engage the received male component (6; 106; 206; 306; 406) to secure it in the chassis (3; 203) and two or more release elements (7; 7a, 7b, 7c, 7a-c, 7b-b, 7b-c, 7c-a; 107; 207) operable when actuated transversely to the first axis to allow the engagement elements (9; 9a, 9b, 9c; 109; 209) to be configured in the open configuration to release the male component (6; 106; 206; 306; 406) wherein an engagement element (9; 9a, 9b, 9c; 109; 209) comprises a flexible element connected between two release elements (7; 7a, 7b, 7c, 7a-c, 7b-b, 7b-c, 7c-a; 107; 207) so as to be configurable into the open configuration by bowing towards a periphery of the chassis (3; 203) under actuation of a release element (7; 7a, 7b, 7c, 7a-c, 7b-b, 7b-c, 7c-a; 107; 207).
A method of printing a tissue construct with embedded vasculature, the method comprising: (i) depositing one or more cell-laden filaments each comprising a plurality of viable cells on a substrate to form one or more tissue patterns, each of the tissue patterns comprising one or more predetermined cell types; (ii) depositing one or more sacrificial filaments on the substrate to form a vascular channel pattern interpenetrating the one or more tissue patterns, each of the sacrificial filaments comprising a fugitive ink, wherein the fugitive ink comprises additional viable cells; followed by: (iii) at least partially surrounding the one or more tissue patterns and the vascular channel pattern with an extracellular matrix composition, and (iv) removing the fugitive ink to create a perfusable interconnected vascular channel network interpenetrating the one or more tissue patterns in the extracellular matrix composition, wherein at least a portion of the additional viable cells remains in the interconnected vascular channel network after removal of the fugitive ink. (i) depositing one or more cell-laden filaments each comprising a plurality of viable cells on a substrate to form one or more tissue patterns, each of the tissue patterns comprising one or more predetermined cell types; (ii) depositing one or more sacrificial filaments on the substrate to form a vascular channel pattern interpenetrating the one or more tissue patterns, each of the sacrificial filaments comprising a fugitive ink, wherein the fugitive ink comprises additional viable cells; (iii) at least partially surrounding the one or more tissue patterns and the vascular channel pattern with an extracellular matrix composition, and (iv) removing the fugitive ink to create a perfusable interconnected vascular channel network interpenetrating the one or more tissue patterns in the extracellular matrix composition, wherein at least a portion of the additional viable cells remains in the interconnected vascular channel network after removal of the fugitive ink.
A vessel for metering a desired amount of a sample, the vessel comprising: a container for receiving a culture sample therein, the container having an open end and a closed end; a lid configured to engage the open end of the container in a fluid-tight connection; a basket coupled to the lid and including at least one reservoir , the basket being disposed between the open end and the closed end of the container , the reservoir configured to hold a predetermined volume of sample therein, the basket and reservoir configured such that the reservoir is filled when the vessel is tilted from an upright horizontal position and sample flows from the container through the basket ; and at least one needle assembly engaged with the lid , the needle assembly including a needle extending within the reservoir , wherein the needle is configured to selectively withdraw a sample contained in the reservoir , and wherein the needle is further configured to engage a vial for a biocontained transfer of the sample from the reservoir to the vial . a container for receiving a culture sample therein, the container having an open end and a closed end; a lid configured to engage the open end of the container in a fluid-tight connection; a basket coupled to the lid and including at least one reservoir , the basket being disposed between the open end and the closed end of the container , the reservoir configured to hold a predetermined volume of sample therein, the basket and reservoir configured such that the reservoir is filled when the vessel is tilted from an upright horizontal position and sample flows from the container through the basket ; and at least one needle assembly engaged with the lid , the needle assembly including a needle extending within the reservoir , wherein the needle is configured to selectively withdraw a sample contained in the reservoir , and wherein the needle is further configured to engage a vial for a biocontained transfer of the sample from the reservoir to the vial .