mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a fuel cell comprising: providing a membrane electrode assembly comprising a gas diffusion layer ; providing a mold having a cavity ; positioning the mold so that the cavity is in fluid communication with the membrane electrode assembly ; applying a curable liquid sealant composition into the cavity ; and, curing the composition, wherein the curable sealant composition comprises: an alkenyl terminated hydrocarbon oligomer; a polyfunctional alkenyl monomer; a silyl hardener having at least two silicon hydride functional groups; and, a hydrosilylation catalyst. providing a membrane electrode assembly comprising a gas diffusion layer ; providing a mold having a cavity ; positioning the mold so that the cavity is in fluid communication with the membrane electrode assembly ; applying a curable liquid sealant composition into the cavity ; and, curing the composition, an alkenyl terminated hydrocarbon oligomer; a polyfunctional alkenyl monomer; a silyl hardener having at least two silicon hydride functional groups; and, a hydrosilylation catalyst.
Heating unit having a heat generator for heating a heating fluid, having a feed line for delivering the heating fluid and a return line for receiving the heating fluid, having a bypass line which connects the return line to the feed line , and having a valve in the bypass line , characterized by a device by means of which the valve is able to be covered by a sliding sleeve and is able to be secured by means of the sliding sleeve .
An organic light emitting device comprising: an anode ; a cathode provided to face the anode; a light emitting layer provided between the anode and the cathode; and an electron transporting layer provided between the cathode and the light emitting layer, wherein the electron transporting layer comprises a first electron transporting layer and a second electron transporting layer , the first electron transporting layer is provided to be brought into contact with the light emitting layer, and the light emitting layer comprises a host material and a dopant material, wherein the host material is an anthracene derivative and the dopant material is a pyrene derivative which has an arylamino group, and characterized in that a reorganization energy of the first electron transporting layer is equal to or less than a difference in LUMO energies between the light emitting layer and the first electron transporting layer, wherein the reorganization energy of electrons is determined as defined in the description, and wherein the LUMO energy level is measured by using cyclic voltammetry (CV). an anode ; a cathode provided to face the anode; a light emitting layer provided between the anode and the cathode; and an electron transporting layer provided between the cathode and the light emitting layer, wherein the electron transporting layer comprises a first electron transporting layer and a second electron transporting layer , the first electron transporting layer is provided to be brought into contact with the light emitting layer, and the light emitting layer comprises a host material and a dopant material, wherein the host material is an anthracene derivative and the dopant material is a pyrene derivative which has an arylamino group, and characterized in that a reorganization energy of the first electron transporting layer is equal to or less than a difference in LUMO energies between the light emitting layer and the first electron transporting layer, wherein the reorganization energy of electrons is determined as defined in the description, and wherein the LUMO energy level is measured by using cyclic voltammetry (CV).
An electromechanical system comprising: - an electric machine , - a rotating apparatus being a turbo-compressor, and - a joint element configured to mechanically connect the electric machine to the rotating apparatus, wherein the joint element comprises: - a coupling element connecting a shaft of the electric machine to a shaft of the rotating apparatus in a torque transferring way, and - a tubular portion surrounding the coupling element, wherein: - a first rim of the tubular portion comprises a seal for arranging a first hermetic joint between the first rim of the tubular portion and an outer surface of the electric machine, - a second rim of the tubular portion comprises a seal for arranging a second hermetic joint between the second rim of the tubular portion and an outer surface of the rotating apparatus, and - the tubular portion comprises an opening and a lid for hermetically closing the opening, the opening providing access to the coupling element from outside the tubular portion. characterized in that the electromechanical system comprises a piping configured to guide a part of an input flow of the turbo-compressor to flow through an airgap of the electric machine. - an electric machine , - a rotating apparatus being a turbo-compressor, and - a joint element configured to mechanically connect the electric machine to the rotating apparatus, wherein the joint element comprises: - a coupling element connecting a shaft of the electric machine to a shaft of the rotating apparatus in a torque transferring way, and - a tubular portion surrounding the coupling element, - a coupling element connecting a shaft of the electric machine to a shaft of the rotating apparatus in a torque transferring way, and - a tubular portion surrounding the coupling element, wherein: - a first rim of the tubular portion comprises a seal for arranging a first hermetic joint between the first rim of the tubular portion and an outer surface of the electric machine, - a second rim of the tubular portion comprises a seal for arranging a second hermetic joint between the second rim of the tubular portion and an outer surface of the rotating apparatus, and - the tubular portion comprises an opening and a lid for hermetically closing the opening, the opening providing access to the coupling element from outside the tubular portion. - a first rim of the tubular portion comprises a seal for arranging a first hermetic joint between the first rim of the tubular portion and an outer surface of the electric machine, - a second rim of the tubular portion comprises a seal for arranging a second hermetic joint between the second rim of the tubular portion and an outer surface of the rotating apparatus, and - the tubular portion comprises an opening and a lid for hermetically closing the opening, the opening providing access to the coupling element from outside the tubular portion. characterized in that the electromechanical system comprises a piping configured to guide a part of an input flow of the turbo-compressor to flow through an airgap of the electric machine.
A method comprising: receiving first information; deciphering the first information based on a first ciphering configuration; receiving a security message with an activation time for a second ciphering configuration; receiving second information after the security message and before the activation time; deciphering the second information based on the first ciphering configuration; receiving third information after the activation time; deciphering the third information based on the second ciphering configuration; and sending an acknowledgement for the security message before the activation time and while receiving the second information. receiving first information; deciphering the first information based on a first ciphering configuration; receiving a security message with an activation time for a second ciphering configuration; receiving second information after the security message and before the activation time; deciphering the second information based on the first ciphering configuration; receiving third information after the activation time; deciphering the third information based on the second ciphering configuration; and sending an acknowledgement for the security message before the activation time and while receiving the second information.
A communication method, carried out by an access network device, comprising: receiving a first aggregated maximum bit rate, AMBR, of a slice, wherein the first AMBR is used to indicate an aggregated maximum uplink and/or downlink bit rate, to which a subscriber of a User Equipment, UE, subscribes, for all quantity of guaranteed bit rate, GBR, QoS flows and non-GBR QoS flows in the slice for the subscriber, and the first AMBR is a subscribed slice AMBR or an authorized slice AMBR; determining a second AMBR of the slice based on the first AMBR, a session-AMBR of an activated protocol data unit, PDU, session of the subscriber of the slice, and a flow control bit rate of a GBR QoS flow of the activated PDU session of the slice, wherein the flow control bit rate is a maximum flow bit rate, MFBR; and performing traffic control on the slice based on the second AMBR. receiving a first aggregated maximum bit rate, AMBR, of a slice, wherein the first AMBR is used to indicate an aggregated maximum uplink and/or downlink bit rate, to which a subscriber of a User Equipment, UE, subscribes, for all quantity of guaranteed bit rate, GBR, QoS flows and non-GBR QoS flows in the slice for the subscriber, and the first AMBR is a subscribed slice AMBR or an authorized slice AMBR; determining a second AMBR of the slice based on the first AMBR, a session-AMBR of an activated protocol data unit, PDU, session of the subscriber of the slice, and a flow control bit rate of a GBR QoS flow of the activated PDU session of the slice, wherein the flow control bit rate is a maximum flow bit rate, MFBR; and performing traffic control on the slice based on the second AMBR.
A series-connected vertical-cavity surface-emitting laser (VCSEL) array , comprising: a single semiconductor die, including: a semiconductor substrate and a conductive cathode layer , the conductive cathode layer including a plurality of electrically separate conductive regions , wherein each of the plurality of electrically separate conductive regions is separated from an adjacent electrically separate conductive region of the plurality of electrically separate conductive regions by a non-conductive region ; and a plurality of VCSEL elements on each electrically separate conductive region, the plurality of VCSEL elements including anode contacts and cathode contacts ; and a sub-mount including a metallization pattern configured to serially connect each electrically conductive region by connecting the anode contacts on each electrically separate conductive region to the cathode contacts on the adjacent electrically separate conductive region of the plurality of electrically separate conductive regions, to maintain electrical separation between the electrically separate conductive regions on the conductive cathode layer, and to electrically separate the anode contacts and the cathode contacts on each electrically separate conductive region on the conductive cathode layer. a single semiconductor die, including: a semiconductor substrate and a conductive cathode layer , the conductive cathode layer including a plurality of electrically separate conductive regions , wherein each of the plurality of electrically separate conductive regions is separated from an adjacent electrically separate conductive region of the plurality of electrically separate conductive regions by a non-conductive region ; and a plurality of VCSEL elements on each electrically separate conductive region, the plurality of VCSEL elements including anode contacts and cathode contacts ; and a semiconductor substrate and a conductive cathode layer , the conductive cathode layer including a plurality of electrically separate conductive regions , wherein each of the plurality of electrically separate conductive regions is separated from an adjacent electrically separate conductive region of the plurality of electrically separate conductive regions by a non-conductive region ; and a plurality of VCSEL elements on each electrically separate conductive region, the plurality of VCSEL elements including anode contacts and cathode contacts ; and a sub-mount including a metallization pattern configured to serially connect each electrically conductive region by connecting the anode contacts on each electrically separate conductive region to the cathode contacts on the adjacent electrically separate conductive region of the plurality of electrically separate conductive regions, to maintain electrical separation between the electrically separate conductive regions on the conductive cathode layer, and to electrically separate the anode contacts and the cathode contacts on each electrically separate conductive region on the conductive cathode layer.
Wheel tray for receiving a wheel of a two-wheeler, in particular of a bicycle, having a wheel tray body which in the fitted state is held on a carrier section of a two-wheeler carrier unit, a flexible ratchet strap and a ratchet lock for the ratchet strap being associated with the wheel tray body , characterized in that the ratchet strap is held at one end on a securing flap which is swivelably mounted on the wheel tray body , on a side adjacent to a receiving area (A) for the wheel , about a swivel axis which is extended in the longitudinal direction of the wheel tray body such that the securing flap is swivelable between a release position swung away from the receiving area (A) and a securing position swung towards the receiving area (A).
A device for distinguishing between traversable and non-traversable objects, comprising: an object-detection sensor unit configured to monitor a space around the object-detection sensor unit and to generate data about the space, a map generation unit configured to use the data generated by the object-detection sensor unit in order to generate an occupancy grid map and a free space grid map for the space around the object-detection sensor unit , wherein each of the occupancy grid map and the free space grid map comprises an array of cells, each cell of the occupancy grid map contains an occupied space probability value representing the probability for the respective cell being occupied and each cell of the free space grid map contains a free space probability value representing the probability for the respective cell being free, and a classifier unit configured to classify at least one of the cells as containing a traversable or non-traversable object by calculating a difference of two free space probability values derived from the free space probability values of at least two of the cells adjacent to the at least one cell and by using the difference as well as the occupied space probability value of the at least one cell in order to classify the at least one cell. an object-detection sensor unit configured to monitor a space around the object-detection sensor unit and to generate data about the space, a map generation unit configured to use the data generated by the object-detection sensor unit in order to generate an occupancy grid map and a free space grid map for the space around the object-detection sensor unit , wherein each of the occupancy grid map and the free space grid map comprises an array of cells, each cell of the occupancy grid map contains an occupied space probability value representing the probability for the respective cell being occupied and each cell of the free space grid map contains a free space probability value representing the probability for the respective cell being free, and a classifier unit configured to classify at least one of the cells as containing a traversable or non-traversable object by calculating a difference of two free space probability values derived from the free space probability values of at least two of the cells adjacent to the at least one cell and by using the difference as well as the occupied space probability value of the at least one cell in order to classify the at least one cell.
A connector for connecting first and second parts of an apparatus, said apparatus being a helmet , the connector comprising: a first plate ; a first anchor point on one side of the first plate , configured to be connected to the first part; a second plate located on an opposite side of the first plate from the first anchor point ; a second anchor point on an opposite side of the second plate from the first plate , configured to be connected to the second part; a low friction interface provided between opposing surfaces of the first and second plates ; and characterised by a cuff of deformable material provided around the first and second plates , and configured to at least partially cover the side of the first plate on which the first anchor point is located and to at least partially cover the side of the second plate on which the second anchor point is located. a first plate ; a first anchor point on one side of the first plate , configured to be connected to the first part; a second plate located on an opposite side of the first plate from the first anchor point ; a second anchor point on an opposite side of the second plate from the first plate , configured to be connected to the second part; a low friction interface provided between opposing surfaces of the first and second plates ; and characterised by a cuff of deformable material provided around the first and second plates , and configured to at least partially cover the side of the first plate on which the first anchor point is located and to at least partially cover the side of the second plate on which the second anchor point is located.
A process for the formation of a lithiated transition metal oxide particle comprising: intermixing one or more transition metal precursors, a lithium compound, and a processing additive comprising potassium, to form an active material precursor; and heating the active material precursor to a temperature of 700 °C to 1000 °C for 0.2 to 60 hours in an oxidizing atmosphere, the heating for a calcination time sufficient to form a lithiated transition metal oxide having a plurality of primary particles having a grain size, wherein the primary particles have a grain size of 4 μm to 15 μm; and wherein the transition metal precursor includes Ni at an atomic percentage of 80 at% or greater. intermixing one or more transition metal precursors, a lithium compound, and a processing additive comprising potassium, to form an active material precursor; and heating the active material precursor to a temperature of 700 °C to 1000 °C for 0.2 to 60 hours in an oxidizing atmosphere, the heating for a calcination time sufficient to form a lithiated transition metal oxide having a plurality of primary particles having a grain size, wherein the primary particles have a grain size of 4 μm to 15 μm; and wherein the transition metal precursor includes Ni at an atomic percentage of 80 at% or greater.
A method for manufacturing a high-resistivity silicon substrate with reduced radio frequency, RF, loss for a radio frequency, RF, integrated passive device, the method comprising; growing a high-resistivity silicon ingot; slicing a silicon wafer from the grown silicon ingot; thinning the sliced silicon wafer, whereby the slicing and thinning is performed to a front surface of the silicon wafer to obtain a thinned wafer including a substrate comprising a bulk zone , a lower lattice damage zone above the bulk zone , and an upper lattice damage zone above the lower lattice damage zone , the upper lattice damage zone providing a front surface , and the lower lattice damage zone and the upper lattice damage zone comprising fractured silicon; polishing the front surface of the thinned silicon wafer to remove a part of the of the upper lattice damage zone so that a part of the lower lattice damage zone is preserved above the bulk zone to obtain a polished front surface, whereby at least part of the preserved lattice damage zone is configured to achieve an RF loss reduction of the substrate by suppressing a parasitic surface conduction; and depositing a polysilicon layer on the polished front surface covering the polished front surface. growing a high-resistivity silicon ingot; slicing a silicon wafer from the grown silicon ingot; thinning the sliced silicon wafer, whereby the slicing and thinning is performed to a front surface of the silicon wafer to obtain a thinned wafer including a substrate comprising a bulk zone , a lower lattice damage zone above the bulk zone , and an upper lattice damage zone above the lower lattice damage zone , the upper lattice damage zone providing a front surface , and the lower lattice damage zone and the upper lattice damage zone comprising fractured silicon; polishing the front surface of the thinned silicon wafer to remove a part of the of the upper lattice damage zone so that a part of the lower lattice damage zone is preserved above the bulk zone to obtain a polished front surface, whereby at least part of the preserved lattice damage zone is configured to achieve an RF loss reduction of the substrate by suppressing a parasitic surface conduction; and depositing a polysilicon layer on the polished front surface covering the polished front surface.
An imaging light guide for conveying a virtual image, comprising: a waveguide ; an in-coupling diffractive optic (IDO) having a first grating vector (k) and disposed to direct image-bearing light beams into the waveguide ; and a reflector array of two or more at least partially reflective surfaces oriented in parallel and arranged to expand the respective image-bearing light beams from the in-coupling diffractive optic (IDO) in a first dimension and to direct the expanded image-bearing light beams toward an out-coupling diffractive optic (ODO); wherein the at least two or more at least partially reflective surfaces are specularly reflective; and wherein the out-coupling diffractive optic (ODO) has a second grating vector (k1) parallel to the first grating vector (k) and is arranged to expand the image-bearing light beams from the reflector array in a second dimension orthogonal to the first dimension and to direct the image-bearing light beams from the waveguide toward an eyebox. a waveguide ; an in-coupling diffractive optic (IDO) having a first grating vector (k) and disposed to direct image-bearing light beams into the waveguide ; and a reflector array of two or more at least partially reflective surfaces oriented in parallel and arranged to expand the respective image-bearing light beams from the in-coupling diffractive optic (IDO) in a first dimension and to direct the expanded image-bearing light beams toward an out-coupling diffractive optic (ODO); wherein the at least two or more at least partially reflective surfaces are specularly reflective; and wherein the out-coupling diffractive optic (ODO) has a second grating vector (k1) parallel to the first grating vector (k) and is arranged to expand the image-bearing light beams from the reflector array in a second dimension orthogonal to the first dimension and to direct the image-bearing light beams from the waveguide toward an eyebox.