mhurhangee/patent-ind-claim-en huggingface dataset:
A separator for a secondary battery comprising: a separator substrate made of a polymer resin having a porous structure; a first coating layer coated on the separator substrate, the first coating layer comprising 50 to 99 weight%, based on the total solid mass of the first coating layer, of a first inorganic material, and comprising a first binder having a glass transition temperature (Tg) lower than 30°C; and a second coating layer coated on the first coating layer, the second coating layer comprising a second inorganic material and a second binder having a Tg of at least 60°C. a separator substrate made of a polymer resin having a porous structure; a first coating layer coated on the separator substrate, the first coating layer comprising 50 to 99 weight%, based on the total solid mass of the first coating layer, of a first inorganic material, and comprising a first binder having a glass transition temperature (Tg) lower than 30°C; and a second coating layer coated on the first coating layer, the second coating layer comprising a second inorganic material and a second binder having a Tg of at least 60°C.
A system for performing minimally invasive procedures in a working space within a body lumen of a patient, the system comprising a flexible catheter configured to receive a working instrument therethrough, the flexible catheter having a proximal portion, a distal portion, and a working space expanding system positioned at the distal portion, the working space expanding system including first and second flexible elements movable from a non-expanded insertion position to an expanded position forming an expanded region to expand the working space within the body lumen, the first and second flexible elements connected to a coupling structure at a distal region, an expandable stabilizing member movable axially with respect to the coupling structure to stabilize the distal portion of the flexible catheter, and characterized in that the stabilizing member is movable from a first position further from the coupling structure to a second position closer to the coupling structure to position the stabilizing member to overlie the coupling structure.
A sleeve-type coal material decomposition apparatus for the continuous operation including kiln body being characterized in that : the inside of said kiln body is set with multiple annular layered spaces for propulsion and decomposition of coal material and multiple annular layered spaces for heating centered on the axis of kiln body; said annular layered spaces for propulsion and decomposition of coal material and annular layered spaces for heating are in multilayer alternating arrangement; the number of the said annular layered spaces for propulsion and decomposition of coal material and annular layered spaces for heating is respectively two or more; said annular layered spaces for propulsion and decomposition of coal material and annular layered spaces for heating are isolated from each other; both ends of the said annular layered space for propulsion and decomposition of coal material are respectively connected to the coal inlet and coal outlet on kiln body and are also connected to the decomposition gas collecting mechanism on kiln body.
A system comprising: a training reinforcement assistance device having a frame supporting an optical system , wherein the optical system is configured to display virtual content on a display , and to enable viewing of at least a portion of a surrounding environment; an imager operably coupled with the frame and configured to produce an image of an environment of the imager ; an accelerometer operably coupled with the frame and configured to detect an orientation of the frame; an eye-tracking system operably coupled with the frame and configured to detect a viewing direction of an operator; and a controller operably coupled with the imager and the display , wherein the controller is configured to receive environmental information from at least one of the imager , the accelerometer , or the eye-tracking system, and to overlay the image of the environment to assist an operator in maneuvering a material handling vehicle based on vehicle kinematics of the material handling vehicle within a line of sight of the operator through the optical system , and the image is positioned on at least one fork of the material handling vehicle as perceived through the optical system , preferably the system comprises the material handling vehicle . a training reinforcement assistance device having a frame supporting an optical system , wherein the optical system is configured to display virtual content on a display , and to enable viewing of at least a portion of a surrounding environment; an imager operably coupled with the frame and configured to produce an image of an environment of the imager ; an accelerometer operably coupled with the frame and configured to detect an orientation of the frame; an eye-tracking system operably coupled with the frame and configured to detect a viewing direction of an operator; and a controller operably coupled with the imager and the display , wherein the controller is configured to receive environmental information from at least one of the imager , the accelerometer , or the eye-tracking system, and to overlay the image of the environment to assist an operator in maneuvering a material handling vehicle based on vehicle kinematics of the material handling vehicle within a line of sight of the operator through the optical system , and the image is positioned on at least one fork of the material handling vehicle as perceived through the optical system ,
A playing memory management method, comprising: Step S1, creating a contiguous memory area; Step S2, dividing a contiguous first memory range from the memory area when digital rights management playing information is received; Step S3, setting, by a secure operating system, an access permission for the first memory range; Step S4, performing, by the secure operating system, a decoding operation in the first memory range until the decoding operation is completed; and Step S5, clearing, by the secure operating system, data in the first memory range, releasing the access permission for the first memory range, and releasing the first memory range; wherein Step S3 comprises the steps of: Step S31, an upper layer control sends a physical address and a capacity of the first memory range to the secure operating system; Step S32, the secure operating system audits the validity of the first memory range; and Step S33, a memory control module of the secure operating system sets an access permission to the first memory range which gets permitted, characterised in that Step S4 comprises the steps of: Step S41, the secure operating system starts a video decoder having the access permission, and sets a DRM identity for the video decoder; Step S42, the video decoder requests for a memory pool from the first memory range; and Step S43, the video decoder performs the decoding operation in the memory pool until the decoding operation is completed. Step S1, creating a contiguous memory area; Step S2, dividing a contiguous first memory range from the memory area when digital rights management playing information is received; Step S3, setting, by a secure operating system, an access permission for the first memory range; Step S4, performing, by the secure operating system, a decoding operation in the first memory range until the decoding operation is completed; and Step S5, clearing, by the secure operating system, data in the first memory range, releasing the access permission for the first memory range, and releasing the first memory range; Step S31, an upper layer control sends a physical address and a capacity of the first memory range to the secure operating system; Step S32, the secure operating system audits the validity of the first memory range; and Step S33, a memory control module of the secure operating system sets an access permission to the first memory range which gets permitted, Step S41, the secure operating system starts a video decoder having the access permission, and sets a DRM identity for the video decoder; Step S42, the video decoder requests for a memory pool from the first memory range; and Step S43, the video decoder performs the decoding operation in the memory pool until the decoding operation is completed.
A structure for reducing electromagnetic interference, comprising: a circuit board , having an upper surface and a ground circuit ; an expansion slot , disposed on the upper surface of the circuit board , and having at least one metal pin electrically connected to the circuit board ; an electrical conductor , located above the upper surface of the circuit board , characterized in that a gap is maintained between the electrical conductor and the metal pin of the expansion slot to produce a capacitor (C); and in that an insulator , disposed between the electrical conductor and the expansion slot and between the electrical conductor and the upper surface of the circuit board to fix the electrical conductor ; wherein a gap is maintained between the electrical conductor and the upper surface of the circuit board to produce another capacitor (C) between the electrical conductor and the ground circuit . a circuit board , having an upper surface and a ground circuit ; an expansion slot , disposed on the upper surface of the circuit board , and having at least one metal pin electrically connected to the circuit board ; an electrical conductor , located above the upper surface of the circuit board , characterized in that a gap is maintained between the electrical conductor and the metal pin of the expansion slot to produce a capacitor (C); and in that an insulator , disposed between the electrical conductor and the expansion slot and between the electrical conductor and the upper surface of the circuit board to fix the electrical conductor ; wherein a gap is maintained between the electrical conductor and the upper surface of the circuit board to produce another capacitor (C) between the electrical conductor and the ground circuit .
A tumor therapeutic agent obtained by combining a taxane antitumor agent with a liposome composition in which gemcitabine or a salt thereof is contained in a liposome, wherein the taxane antitumor agent is nab-paclitaxel, a content ratio of cholesterols to a total amount of a lipid forming the liposome is 10 mol% to 35 mol%, the lipid forming the liposome contains hydrogenated soybean phosphatidylcholine, and an osmotic pressure of an inner aqueous phase of the liposome is 2 to 8 times an osmotic pressure of an outer aqueous phase of the liposome.
Tank for storing fluid media under cryogenic conditions, in particular liquid hydrogen, on bord of a vehicle, in particular an aircraft , the tank having an outer wall formed at least in portions from a multi-layer fiber composite laminate , the laminate including at least one microcrack-stopping sub-laminate being surrounded by structural laminate layers in a thickness direction of the laminate , the crack-stopping sub-laminate having stacked alternating layers of thin fiber plies , each thin fiber ply having a thickness of less than 0.1 mm, wherein the fibers of a first thin fiber ply are oriented in a first area direction of the laminate and the fibers of a second thin fiber ply adjacent to the first thin fiber ply are oriented in a second area direction of the laminate , the second area direction being substantially perpendicular to the first area direction .
Auxiliary device for a luminaire of a lighting system , the auxiliary device comprising an electronic control unit designed for controlling a converter circuit of the luminaire , an electrical connecting means designed for wired electrical connection of the control unit to the converter circuit , and a housing for receiving the electronic control unit and the electrical connecting means , and the electronic control unit comprising a wireless interface (10.1), the wireless interface being designed to enable bidirectional radio communication of the electronic control unit , the electronic control unit being designed to receive configuration data and/or operating data for the converter circuit via the wireless interface (10.1), and the electronic control unit being further designed to communicate with at least one further wireless interface (10.1) of a further auxiliary device for a further luminaire , and characterized in that the auxiliary device comprises a sensor , the sensor comprising a wireless interface (11.1) and being designed to communicate at least with the electronic control unit via the wireless interface (11.1) of the sensor and the wireless interface (10.1) of the control unit . an electronic control unit designed for controlling a converter circuit of the luminaire , an electrical connecting means designed for wired electrical connection of the control unit to the converter circuit , and a housing for receiving the electronic control unit and the electrical connecting means , and the electronic control unit comprising a wireless interface (10.1), the wireless interface being designed to enable bidirectional radio communication of the electronic control unit , the electronic control unit being designed to receive configuration data and/or operating data for the converter circuit via the wireless interface (10.1), and the electronic control unit being further designed to communicate with at least one further wireless interface (10.1) of a further auxiliary device for a further luminaire , and characterized in that the auxiliary device comprises a sensor , the sensor comprising a wireless interface (11.1) and being designed to communicate at least with the electronic control unit via the wireless interface (11.1) of the sensor and the wireless interface (10.1) of the control unit .
A method of allocating resources in a network for the transmission of a data flow, comprising the following steps performed by the network: receiving a query from a client specifying one or more quality-of-service, QoS, requirements for the data flow; identifying , from a set of stored QoS models, a plurality of QoS models that match the specified requirements, each QoS model defining a class of service available in the network; transmitting, in response to the query, a query response specifying the identified QoS models; receiving a reservation request from the client, the reservation request specifying at least one of the identified QoS models; and allocating one or more resources in the network for the data flow based on the at least one QoS model specified in the reservation request. receiving a query from a client specifying one or more quality-of-service, QoS, requirements for the data flow; identifying , from a set of stored QoS models, a plurality of QoS models that match the specified requirements, each QoS model defining a class of service available in the network; transmitting, in response to the query, a query response specifying the identified QoS models; receiving a reservation request from the client, the reservation request specifying at least one of the identified QoS models; and allocating one or more resources in the network for the data flow based on the at least one QoS model specified in the reservation request.
A process for producing a lithium beryllium fluoride salt, comprising: mixing ammonium beryllium fluoride with a lithium compound to form a reaction mixture; melting the reaction mixture to produce a molten phase; purging the molten phase; and cooling the molten phase to obtain the lithium beryllium fluoride salt; wherein the lithium compound is lithium hydroxide or lithium carbonate. mixing ammonium beryllium fluoride with a lithium compound to form a reaction mixture; melting the reaction mixture to produce a molten phase; purging the molten phase; and cooling the molten phase to obtain the lithium beryllium fluoride salt; wherein the lithium compound is lithium hydroxide or lithium carbonate.
A method for transmitting a sidelink synchronization signal, SLSS, in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving (S210, S310) SLSS resource configuration information, wherein the SLSS resource configuration information configures SLSS resources on each of a plurality of carriers configured for the UE performing vehicle-to-everything, V2X, operation; receiving (S220, S320) SLSS transmission configuration information informing whether a carrier among the plurality of carriers cannot be used to transmit the SLSS even though configured with SLSS resources; and transmitting (S230, S330) the SLSS using the SLSS resources configured by the SLSS resource configuration information on at least one of the plurality of carriers determined based on the SLSS transmission configuration information, wherein a number and location of the SLSS resources configured by the SLSS resource configuration information are same across all the plurality of carriers. receiving (S210, S310) SLSS resource configuration information, wherein the SLSS resource configuration information configures SLSS resources on each of a plurality of carriers configured for the UE performing vehicle-to-everything, V2X, operation; receiving (S220, S320) SLSS transmission configuration information informing whether a carrier among the plurality of carriers cannot be used to transmit the SLSS even though configured with SLSS resources; and transmitting (S230, S330) the SLSS using the SLSS resources configured by the SLSS resource configuration information on at least one of the plurality of carriers determined based on the SLSS transmission configuration information, wherein a number and location of the SLSS resources configured by the SLSS resource configuration information are same across all the plurality of carriers.
A water delivery apparatus for use at a household appliance, the water delivery apparatus comprising: an air-tight water storage unit configured to store water; an air channel configured to allow air to enter the water storage unit at a predetermined height level so as to regulate the water pressure in the water storage unit; and a water delivery tube comprising a first end and a second end, wherein the first end is connected to the water storage unit, and the second end is connected to a component of the household appliance at which water is utilized for performing a function of the household appliance, and a flow adjustment unit arranged at the water delivery tube , the flow adjustment unit being configured to reduce or increase the inner diameter of at least a part of the water delivery tube, wherein the water delivery tube is arranged such that its second end is lower than the predetermined height level, and the height difference causes water to flow from the water storage unit to the component of the household appliance, and the rate of water flow from the water storage unit to the component is based on at least one of: the extent of the height difference, the inner diameter of the water delivery tube, and the length of the water delivery tube. an air-tight water storage unit configured to store water; an air channel configured to allow air to enter the water storage unit at a predetermined height level so as to regulate the water pressure in the water storage unit; and a water delivery tube comprising a first end and a second end, wherein the first end is connected to the water storage unit, and the second end is connected to a component of the household appliance at which water is utilized for performing a function of the household appliance, and a flow adjustment unit arranged at the water delivery tube , the flow adjustment unit being configured to reduce or increase the inner diameter of at least a part of the water delivery tube, wherein the water delivery tube is arranged such that its second end is lower than the predetermined height level, and the height difference causes water to flow from the water storage unit to the component of the household appliance, and the rate of water flow from the water storage unit to the component is based on at least one of: the extent of the height difference, the inner diameter of the water delivery tube, and the length of the water delivery tube.
A composition for use in a therapeutic method of regenerating adipose tissues comprising, as an ingredient, exosomes derived from adipose-derived stem cells differentiating into adipocytes, wherein the regenerating adipose tissues refers to the regeneration of adipose tissues by recovering damaged adipose tissues or inducing the production of deficient adipose tissues; wherein the stem cells differentiating into adipocytes refer to stem cells where lipid droplets are formed in the cytoplasm while the stem cells become gradually uneven; and wherein the exosomes comprise macrophage colony stimulating factor (MCSF), tumor necrosis factor-α (TNF-α), leptin, insulin, angiopoietin-1 (ANGPT1), and adipocyte complement-related protein of 30 kDa (Acrp30).
Method for producing a sealing tape comprising the steps: - Providing a foam carrier and transporting this foam carrier in a predetermined transport direction (T), wherein this foam carrier has a first surface and a second surface , wherein this first surface and the second surface are opposite to each other, - Making first incisions in the first surface , wherein these first incisions extend at least also in a thickness direction (D) of the foam carrier ; - Making second incisions in the second surface , wherein these second incisions extend at least also in a thickness direction (D) of the foam carrier , wherein in a following method step further first and second incisions are made in the first and second surfaces . - Providing a foam carrier and transporting this foam carrier in a predetermined transport direction (T), wherein this foam carrier has a first surface and a second surface , wherein this first surface and the second surface are opposite to each other, - Making first incisions in the first surface , wherein these first incisions extend at least also in a thickness direction (D) of the foam carrier ; - Making second incisions in the second surface , wherein these second incisions extend at least also in a thickness direction (D) of the foam carrier , wherein in a following method step further first and second incisions are made in the first and second surfaces .
A method of machining, with a formed tool , wherein the formed tool is a grinding wheel or a wheel-type milling cutter, a first rotor and a second rotor with mutually complementary meshing threads with variable lead, the method comprising: rotating a first workpiece about a longitudinal axis of the workpiece ; making one or more passes of the formed tool along the longitudinal axis of the workpiece as the workpiece rotates so as to remove material, thereby forming the flanks of each helix of the first rotor's thread , the value of at least one of the parameters that collectively define the relative position and relative movement of the workpiece and formed tool being varied during each pass so as to vary the lead of the thread ; and repeating the above steps for a second workpiece , thereby forming the second rotor , wherein adjustments are made to at least one of said parameters during one or more of the passes in order to maintain mutually complementary shapes of the threads of the rotors ; wherein the adjustments made during each pass are made according to a global adjustment distribution, each global adjustment distribution being determined in advance by: theoretically calculating the clearance distribution that would be produced by counter-rotating a hypothetical pair of meshed first and second rotors of the shape that would be produced by machining them without any adjustments being made, at a plurality of locations along the longitudinal axes of the meshed rotors ; deriving a location-specific adjustment set for each of said locations, each location-specific adjustment set comprising one or more parameter adjustments which would cause the clearance distribution at that location to be maintained within a predetermined range of values; and collating the adjustments to each parameter according to the location-specific adjustment sets.