mhurhangee/patent-ind-claim-en huggingface dataset:
A container for containing fluid substance that is immiscible with a silicone oil, a glycerin fatty acid ester, a liquid paraffin and an edible fat and oil as a content, wherein: a container surface that comes in contact with said content is formed of a resin composition that contains a forming-resin and a liquid selected from at least one of a silicone oil, a glycerin fatty acid ester, a liquid paraffin and an edible fat and oil; the resin composition contains said liquid in an amount of not less than 3% by weight; the covering ratio F with the liquid is from 0.35 to 0.91, the covering ratio F being represented by the following formula , F = cos θ − cos θ B / cos θ A − cos θ B wherein θ is a water contact angle on the container surface formed of said resin composition, θ A is a water contact angle on the liquid, and θ B is a water contact angle on the forming-resin; the forming-resin is a polyester or polyolefin. a container surface that comes in contact with said content is formed of a resin composition that contains a forming-resin and a liquid selected from at least one of a silicone oil, a glycerin fatty acid ester, a liquid paraffin and an edible fat and oil; the resin composition contains said liquid in an amount of not less than 3% by weight; the covering ratio F with the liquid is from 0.35 to 0.91, the covering ratio F being represented by the following formula , F = cos θ − cos θ B / cos θ A − cos θ B wherein θ is a water contact angle on the container surface formed of said resin composition, θ A is a water contact angle on the liquid, and θ B is a water contact angle on the forming-resin; the forming-resin is a polyester or polyolefin.
A method for wireless communications, comprising: determining a limit associated with a quantity of a plurality of downlink control information, DCI, for each of at least one scheduling chain, each of at least one of the plurality of DCI to be transmitted on one of a plurality of data channels, and wherein each of the plurality of DCI in the scheduling chain schedules another one of the plurality of data channels; and transmitting the plurality of DCI on the plurality of data channels in accordance with the determination to a user-equipment, UE, further comprising receiving a hybrid automatic repeat request, HARQ, indication associated with one of the data channels having a DCI of the plurality of DCI, wherein the determining of the limit is based on the HARQ indication. determining a limit associated with a quantity of a plurality of downlink control information, DCI, for each of at least one scheduling chain, each of at least one of the plurality of DCI to be transmitted on one of a plurality of data channels, and wherein each of the plurality of DCI in the scheduling chain schedules another one of the plurality of data channels; and transmitting the plurality of DCI on the plurality of data channels in accordance with the determination to a user-equipment, UE, further comprising receiving a hybrid automatic repeat request, HARQ, indication associated with one of the data channels having a DCI of the plurality of DCI, wherein the determining of the limit is based on the HARQ indication.
A power module assembly comprising: a housing including at least one first heat-dissipation surface and an installation surface ; at least one resilient bracket pre-fastened on the installation surface of the housing , located near the first heat-dissipation surface and configured to form an accommodating space with the first heat-dissipation surface ; a circuit board configured to assemble on the housing ; and at least one power device plugged in the circuit board and accommodated in the accommodating space ; characterized by at least one fastening unit including an engaging part and a locking part , wherein the locking part is disposed in the installation surface of the housing , wherein while the engaging part is inserted and locked into the locking part , the fastening unit presses the resilient bracket and the resilient bracket pushes against the power device , so that the power device is attached to the first heat-dissipation surface and clamped between the resilient bracket and the first heat-dissipation surface . a housing including at least one first heat-dissipation surface and an installation surface ; at least one resilient bracket pre-fastened on the installation surface of the housing , located near the first heat-dissipation surface and configured to form an accommodating space with the first heat-dissipation surface ; a circuit board configured to assemble on the housing ; and at least one power device plugged in the circuit board and accommodated in the accommodating space ; characterized by at least one fastening unit including an engaging part and a locking part , wherein the locking part is disposed in the installation surface of the housing , wherein while the engaging part is inserted and locked into the locking part , the fastening unit presses the resilient bracket and the resilient bracket pushes against the power device , so that the power device is attached to the first heat-dissipation surface and clamped between the resilient bracket and the first heat-dissipation surface .
A composition comprising: at least one superabsorbent polymer selected from the group consisting of copolymer of acrylamide and sodium acrylate; poly(2-propenamide-co-2-propanoic acid, sodium salt); starch-g-poly(2propenamide-co-2-propanoic acid, mixed sodium and aluminum salts); starch-g-poly(2-propenamide-co-2-propanoic acid, potassium salt); poly(2-propenamide-co-2-propanoic acid, sodium salt); poly-2-propanoic acid, sodium salt; starch-g-poly(acrylonitrile) or poly(2-propenamide-co-sodium acrylate); starch/acrylonitrile copolymer; crosslinked copolymers of acrylamide and sodium acrylate; acrylamide/sodium polyacrylate crosslinked polymers; anionic polyacrylamide; starch grafted sodium polyacrylates; acrylic acid polymers, sodium salt; crosslinked potassium polyacrylate/polyacrylamide copolymers; sodium polyacrylate; sodium polyacrylates; poly(sodiumacrylate) homopolymer; polyacrylamide polymers, carrageenan, agar, alginic acid, guar gums; gellan gum; crosslinked copolymer of acrylamide and potassium acrylate; at least one water soluble phosphate selected from the group consisting of monosodium phosphate, disodium phosphate, trisodium phosphate, rock phosphate, monopotassium phosphate, potassium diphosphate and dipotassium phosphate; and wherein the composition further comprises a fertilizer; and wherein the water-soluble phosphate is present in an amount of 0.1% to 50% based on the weight of the superabsorbent polymer. at least one superabsorbent polymer selected from the group consisting of copolymer of acrylamide and sodium acrylate; poly(2-propenamide-co-2-propanoic acid, sodium salt); starch-g-poly(2propenamide-co-2-propanoic acid, mixed sodium and aluminum salts); starch-g-poly(2-propenamide-co-2-propanoic acid, potassium salt); poly(2-propenamide-co-2-propanoic acid, sodium salt); poly-2-propanoic acid, sodium salt; starch-g-poly(acrylonitrile) or poly(2-propenamide-co-sodium acrylate); starch/acrylonitrile copolymer; crosslinked copolymers of acrylamide and sodium acrylate; acrylamide/sodium polyacrylate crosslinked polymers; anionic polyacrylamide; starch grafted sodium polyacrylates; acrylic acid polymers, sodium salt; crosslinked potassium polyacrylate/polyacrylamide copolymers; sodium polyacrylate; sodium polyacrylates; poly(sodiumacrylate) homopolymer; polyacrylamide polymers, carrageenan, agar, alginic acid, guar gums; gellan gum; crosslinked copolymer of acrylamide and potassium acrylate; at least one water soluble phosphate selected from the group consisting of monosodium phosphate, disodium phosphate, trisodium phosphate, rock phosphate, monopotassium phosphate, potassium diphosphate and dipotassium phosphate; and wherein the composition further comprises a fertilizer; and wherein the water-soluble phosphate is present in an amount of 0.1% to 50% based on the weight of the superabsorbent polymer.
A method for vehicle-to-vehicle charging for electric vehicles, comprising the steps: providing a three phase bi-directional on-board charger of a first electric vehicle comprising at least one power factor correction unit and at least one isolated DC-DC converter, wherein the power factor correction unit comprises switches (S1-S4), providing a multi-port unit , switching the switches (S1-S4) of the power factor correction unit of the bi-directional on-board charger of the first electric vehicle such that a DC power is provided at a first terminal L1 and a second terminal L2 of the three phase bi-directional on board-charger of the first electric vehicle; and transferring the DC power from the first terminal L1 of the first electric vehicle to an energy storage system of a second electric vehicle, and from the second terminal L2 of the first electric vehicle to an energy storage system of a third electric vehicle, wherein the first electric vehicle is connectable to the second electric vehicle and to the third electric vehicle by means of the multi-port unit , wherein the multi-port unit comprises a common neutral conductor and wherein the multi-port unit is configured to provide a communication between the first electrical vehicle and the second electrical vehicle and the third electrical vehicle. providing a three phase bi-directional on-board charger of a first electric vehicle comprising at least one power factor correction unit and at least one isolated DC-DC converter, wherein the power factor correction unit comprises switches (S1-S4), providing a multi-port unit , switching the switches (S1-S4) of the power factor correction unit of the bi-directional on-board charger of the first electric vehicle such that a DC power is provided at a first terminal L1 and a second terminal L2 of the three phase bi-directional on board-charger of the first electric vehicle; and transferring the DC power from the first terminal L1 of the first electric vehicle to an energy storage system of a second electric vehicle, and from the second terminal L2 of the first electric vehicle to an energy storage system of a third electric vehicle, wherein the first electric vehicle is connectable to the second electric vehicle and to the third electric vehicle by means of the multi-port unit , wherein the multi-port unit comprises a common neutral conductor and wherein the multi-port unit is configured to provide a communication between the first electrical vehicle and the second electrical vehicle and the third electrical vehicle.
Actuator device with at least one actuator element (10a-e) which is at least partially composed of a magnetically shape-shiftable material, and with a magnet unit (12a-c) comprising at least one first magnetic element (14a-c) that is implemented as a coil unit and at least one second magnetic element (16a-c, 17b) that is implemented as a permanent magnet, characterised in that at least the first magnetic element (14a-c) and the second magnetic element (16a-c, 17b) are configured for interacting in at least one operation state so as to cause a local deformation (18a-e, 20a-e, 21c) of the actuator element (10a-e) in a partial region (22a-e, 24a-e, 25c) of the actuator element (10a-e), the actuator element (10a-e) remaining non-deformed in a partial region (22a-e, 24a-e, 25c) that differs from the partial region (22a-e, 24a-e, 25c).
A composition comprising a therapeutically effective amount of a therapeutic agent and an intracellular permeation enhancing agent for use in the treatment of cancer in a subject, wherein the therapeutic agent comprises a platinum agent, wherein the intracellular permeation enhancing agent is selected from the group consisting of 6-oxo-6 phenylhexanoic acid, 8-Cyclohexyl-8-oxooctanoic acid, N -(8-[2-hydroxybenzoyl]amino)octanoic acid, and a functionally effective salt thereof, and wherein the composition is for use in intratumoral administration.
A method for optimizing a receiver, comprising: recovering, , a clock signal from a data signal received over a communication channel; sampling, the data signal, in accordance with a stressed clock signal generated in accordance with the recovered clock signal and injected jitter, to generate a stressed output signal; detecting, , a bit error rate, BER, of the stressed output signal; and making, , an optimization decision based on the detected BER, characterized in that , after detecting the BER of the stressed output signal, the method further comprises: changing, , a configuration of the receiver from a first configuration to a second configuration; and repeating, , the steps of recovering clock phase information, injecting jitter, sampling the data signal, and detecting the BER of the stressed output signal, wherein, making an optimization decision comprises: using, , one of the first configuration and the second configuration in accordance with a comparison of a BER metric comprising the BER of the first configuration and a BER metric comprising the BER of the second configuration. recovering, , a clock signal from a data signal received over a communication channel; sampling, the data signal, in accordance with a stressed clock signal generated in accordance with the recovered clock signal and injected jitter, to generate a stressed output signal; detecting, , a bit error rate, BER, of the stressed output signal; and making, , an optimization decision based on the detected BER, characterized in that , after detecting the BER of the stressed output signal, the method further comprises: changing, , a configuration of the receiver from a first configuration to a second configuration; and repeating, , the steps of recovering clock phase information, injecting jitter, sampling the data signal, and detecting the BER of the stressed output signal, wherein, making an optimization decision comprises: using, , one of the first configuration and the second configuration in accordance with a comparison of a BER metric comprising the BER of the first configuration and a BER metric comprising the BER of the second configuration.
An inspection system comprising: a. a radiation source ; b. a detector array ; c. an inspection region bounded by said radiation source and detector array; d. a processing unit , wherein, through operation of at least one processor, at least one memory, and programmatic instructions, said processing unit being configured to i. obtain data representative of a radiographic image; ii. segment said data based on radiation attenuation or transmission to generate an object map of potential high-atomic-number objects where a high-atomic-number object has an atomic number of 72 or above with the exception of Polonium ; iii. use the object map as a mask to crop the data representing the radiographic image to identify at least one segmented area within said data representative of said radiographic image; iv. filter said at least one segmented area using at least one geometric filter; v. generate a plurality of feature vectors using said filtered segmented area; and vi. compare said feature vectors against predefined values to determine whether a high-atomic-number object is present. a. a radiation source ; b. a detector array ; c. an inspection region bounded by said radiation source and detector array; d. a processing unit , wherein, through operation of at least one processor, at least one memory, and programmatic instructions, said processing unit being configured to i. obtain data representative of a radiographic image; ii. segment said data based on radiation attenuation or transmission to generate an object map of potential high-atomic-number objects where a high-atomic-number object has an atomic number of 72 or above with the exception of Polonium ; iii. use the object map as a mask to crop the data representing the radiographic image to identify at least one segmented area within said data representative of said radiographic image; iv. filter said at least one segmented area using at least one geometric filter; v. generate a plurality of feature vectors using said filtered segmented area; and vi. compare said feature vectors against predefined values to determine whether a high-atomic-number object is present. i. obtain data representative of a radiographic image; ii. segment said data based on radiation attenuation or transmission to generate an object map of potential high-atomic-number objects where a high-atomic-number object has an atomic number of 72 or above with the exception of Polonium ; iii. use the object map as a mask to crop the data representing the radiographic image to identify at least one segmented area within said data representative of said radiographic image; iv. filter said at least one segmented area using at least one geometric filter; v. generate a plurality of feature vectors using said filtered segmented area; and vi. compare said feature vectors against predefined values to determine whether a high-atomic-number object is present.
An apparatus for installation within a tire for a vehicle, comprising: a flexible arm having first and second ends , wherein said first end is configured to be coupled to a rim , upon which said tire is mounted, and said second end is configured to be in contact with an inside tread surface of said tire ; and a power generating element coupled to said flexible arm for generating electrical energy, wherein said flexible arm is provided to deform in response to a variability of distance between said rim and said inside tread surface during rolling movement of said tire and said power generating element is provided to generate said electrical energy in response to deformation of said flexible arm characterized in that said power generating element is coupled to said flexible arm at a location of a greatest degree of flexure relative to a remainder of said flexure in said flexible arm . a flexible arm having first and second ends , wherein said first end is configured to be coupled to a rim , upon which said tire is mounted, and said second end is configured to be in contact with an inside tread surface of said tire ; and a power generating element coupled to said flexible arm for generating electrical energy, wherein said flexible arm is provided to deform in response to a variability of distance between said rim and said inside tread surface during rolling movement of said tire and said power generating element is provided to generate said electrical energy in response to deformation of said flexible arm characterized in that said power generating element is coupled to said flexible arm at a location of a greatest degree of flexure relative to a remainder of said flexure in said flexible arm .
A method for communicating information for use in a communication network using network function virtualization (NFV-based communication network), said method comprising: sending a communication from a first entity of said NFV-based communication network, said first entity being a sender ; and receiving said communication by a second entity of said NFV-based communication network, said second entity being a receiver ; wherein said communication comprises: an identification of said sender of said communication, and an identification of said receiver of said communication; an identification of a function associated with said NFV-based communication network; and an authorization associating at least one of said sender and said receiver with said function; wherein the communication is sent from the sender to the receiver directly; wherein a supervising entity supervises the communication between the sender and receiver and the supervising entity comprises a security module ; wherein the sender obtains the security module from the supervising entity; wherein the security module operated by the sender registers itself with the supervising entity ; and wherein the receiver is enabled to authenticate with the security module operated by the supervising entity the communication received from the sender . sending a communication from a first entity of said NFV-based communication network, said first entity being a sender ; and receiving said communication by a second entity of said NFV-based communication network, said second entity being a receiver ; wherein said communication comprises: an identification of said sender of said communication, and an identification of said receiver of said communication; an identification of a function associated with said NFV-based communication network; and an authorization associating at least one of said sender and said receiver with said function; an identification of said sender of said communication, and an identification of said receiver of said communication; an identification of a function associated with said NFV-based communication network; and an authorization associating at least one of said sender and said receiver with said function; wherein the communication is sent from the sender to the receiver directly; wherein a supervising entity supervises the communication between the sender and receiver and the supervising entity comprises a security module ; wherein the sender obtains the security module from the supervising entity; wherein the security module operated by the sender registers itself with the supervising entity ; and wherein the receiver is enabled to authenticate with the security module operated by the supervising entity the communication received from the sender .
A method, comprising: receiving one or more device-to-device, D2D, scheduling requests, SR, by a base station, eNB , in a wireless communication network , the method further comprising: determining a distributed resource containing a plurality of resource blocks, RBs, the distributed resource being determined , based on D2D discovery parameters comprising a number of total D2D devices (UE1, UE2,... UEm) requiring beacon transmission, a discovery period, and a target discovery probability, to distribute the plurality of RBs along frequency domain of subcarriers and time domain of time slots so as to minimize required resource to satisfy the same D2D discovery parameters; and transmitting uplink grant to a plurality of D2D devices for beacon transmission, wherein the uplink grant allocates the distributed resource for random access of beacon transmission by the D2D devices (UE1, UE2,... UEm). determining a distributed resource containing a plurality of resource blocks, RBs, the distributed resource being determined , based on D2D discovery parameters comprising a number of total D2D devices (UE1, UE2,... UEm) requiring beacon transmission, a discovery period, and a target discovery probability, to distribute the plurality of RBs along frequency domain of subcarriers and time domain of time slots so as to minimize required resource to satisfy the same D2D discovery parameters; and transmitting uplink grant to a plurality of D2D devices for beacon transmission, wherein the uplink grant allocates the distributed resource for random access of beacon transmission by the D2D devices (UE1, UE2,... UEm).