mhurhangee/patent-ind-claim-en huggingface dataset:
A power battery base for supporting a power battery pack, comprising a tray and a liquid cooling tube disposed on the tray , wherein the tray comprises a bottom plate and side plates disposed around the periphery of the bottom plate , the bottom plate and the side plates jointly form a receiving cavity for receiving the power battery pack, the bottom plate is provided with at least one beam , the beam divides the bottom plate into at least two sub-bottom plates , characterized in that the liquid cooling tube is laid on at least one of the sub-bottom plates , and that the liquid cooling tube is cross over the beam that it passes, wherein the liquid cooling tube is laid in one sub-bottom plate and extends from the sub-bottom plate across the beam into another sub-bottom plate or from the sub-bottom plate across the beam to the side plate and along the side plate to a liquid outlet tube or a liquid inlet tube .
Method for providing an authenticated connection between at least two communication partners , comprising the steps of: - establishing an anonymous signal-carrying connection between the at least two communication partners ; - checking, by a second communication partner of the at least two communication partners , the authenticity of a signed certificate used by a first communication partner of the at least two communication partners ; - displaying of an authentication code by the second communication partner after the checking of the authenticity of the signed certificate used by the first communication partner has taken place; and - confirming, by a user by means of the first communication partner , the authentication code displayed by the second communication partner ; - wherein the anonymous signal-carrying connection between the at least two communication partners is based on a Transport Layer Security protocol; - wherein the first communication partner is designed as an in-vehicle device; and - wherein the authentication code is a vehicle-related code. - establishing an anonymous signal-carrying connection between the at least two communication partners ; - checking, by a second communication partner of the at least two communication partners , the authenticity of a signed certificate used by a first communication partner of the at least two communication partners ; - displaying of an authentication code by the second communication partner after the checking of the authenticity of the signed certificate used by the first communication partner has taken place; and - confirming, by a user by means of the first communication partner , the authentication code displayed by the second communication partner ; - wherein the anonymous signal-carrying connection between the at least two communication partners is based on a Transport Layer Security protocol; - wherein the first communication partner is designed as an in-vehicle device; and - wherein the authentication code is a vehicle-related code.
An aluminum support for a planographic printing plate, wherein an average value of surface area-increase rates ΔS SEM (%) computed from Expression is 200% or more, and an average value of pit depths Δh SEM (nm) is 400 nm or less, ΔS SEM (%)=(length of surface line/length of standard straight line Y)×100 ··· here, the length of the standard straight line Y is 1.0 μm, and the length of the surface line is a length of a cross-sectional curved line in a cross section of the aluminum support for a planographic printing plate in a thickness direction between any start point in the cross-sectional curved line and an end point at which a length of the cross-sectional curved line from the start point is minimized among any points in the cross-sectional curved line at which a straight line distance from the start point becomes equal to the length of the standard straight line Y, and the pit depth Δh SEM (nm) refers to a length at which a length of a normal line drawn to a 0.2 μm-long standard straight line Z having a start point and an end point on a cross-sectional curved line, from the standard straight line Z to the cross-sectional curved line is maximized. wherein an average value of surface area-increase rates ΔS SEM (%) computed from Expression is 200% or more, and an average value of pit depths Δh SEM (nm) is 400 nm or less, ΔS SEM (%)=(length of surface line/length of standard straight line Y)×100 ··· here, the length of the standard straight line Y is 1.0 μm, and the length of the surface line is a length of a cross-sectional curved line in a cross section of the aluminum support for a planographic printing plate in a thickness direction between any start point in the cross-sectional curved line and an end point at which a length of the cross-sectional curved line from the start point is minimized among any points in the cross-sectional curved line at which a straight line distance from the start point becomes equal to the length of the standard straight line Y, and the pit depth Δh SEM (nm) refers to a length at which a length of a normal line drawn to a 0.2 μm-long standard straight line Z having a start point and an end point on a cross-sectional curved line, from the standard straight line Z to the cross-sectional curved line is maximized.
A polycarbonate composition comprising: a continuous phase comprising a polycarbonate component; discontinuous first domains distributed in the continuous phase, and comprising a core-shell silicone-(meth)acrylate impact modifier comprising a silicone elastomer core and a (meth)acrylate copolymer shell, wherein the first domains have an aspect ratio of at least 1.7, preferably at least 1.8; and discontinuous second domains distributed in the continuous phase, and comprising an alkenyl aromatic-olefin block copolymer impact modifier, wherein the second domains have an aspect ratio of at least 3, preferably at least 4, and a domain size of 6400 square nanometers or less, more preferably 5700 square nanometers or less; each as determined by scanning transmission electron microscopy of an outer surface of a molded sample, within 10 micrometers of the outer surface. a continuous phase comprising a polycarbonate component; discontinuous first domains distributed in the continuous phase, and comprising a core-shell silicone-(meth)acrylate impact modifier comprising a silicone elastomer core and a (meth)acrylate copolymer shell, wherein the first domains have an aspect ratio of at least 1.7, preferably at least 1.8; and discontinuous second domains distributed in the continuous phase, and comprising an alkenyl aromatic-olefin block copolymer impact modifier, wherein the second domains have an aspect ratio of at least 3, preferably at least 4, and a domain size of 6400 square nanometers or less, more preferably 5700 square nanometers or less; each as determined by scanning transmission electron microscopy of an outer surface of a molded sample, within 10 micrometers of the outer surface.
A system for modulating the nervous system to reduce inflammation, comprising: a pulse generator , wherein the pulse generator generates pulsed electrical signals; a lead ; one or more electrodes communicatively coupled to the pulse generator via the lead , wherein the pulse generator is configured to apply the pulsed electrical signal to one or more nerves via the one or more electrodes ; and a processor configured to: deliver a vagus nerve stimulation, VNS, therapy to a vagus nerve of a patient for the treatment of inflammation via the one or more electrodes according to a first set of parameters; and deliver a secondary nerve stimulation, SNS, therapy to a secondary nerve of the patient for affecting a sleep quality of the patient via the one or more electrodes according to a second set of parameters different from the first set of parameters, wherein the secondary nerve comprises one or more of the hypoglossal nerve, the carotid sinus nerve, the aortic depressor nerve, the greater splanchnic nerve, the splenic nerve, the trigeminal nerve, and the paravertebral ganglia of sympathetic nerves. a pulse generator , wherein the pulse generator generates pulsed electrical signals; a lead ; one or more electrodes communicatively coupled to the pulse generator via the lead , wherein the pulse generator is configured to apply the pulsed electrical signal to one or more nerves via the one or more electrodes ; and a processor configured to: deliver a vagus nerve stimulation, VNS, therapy to a vagus nerve of a patient for the treatment of inflammation via the one or more electrodes according to a first set of parameters; and deliver a secondary nerve stimulation, SNS, therapy to a secondary nerve of the patient for affecting a sleep quality of the patient via the one or more electrodes according to a second set of parameters different from the first set of parameters, wherein the secondary nerve comprises one or more of the hypoglossal nerve, the carotid sinus nerve, the aortic depressor nerve, the greater splanchnic nerve, the splenic nerve, the trigeminal nerve, and the paravertebral ganglia of sympathetic nerves. deliver a vagus nerve stimulation, VNS, therapy to a vagus nerve of a patient for the treatment of inflammation via the one or more electrodes according to a first set of parameters; and deliver a secondary nerve stimulation, SNS, therapy to a secondary nerve of the patient for affecting a sleep quality of the patient via the one or more electrodes according to a second set of parameters different from the first set of parameters, wherein the secondary nerve comprises one or more of the hypoglossal nerve, the carotid sinus nerve, the aortic depressor nerve, the greater splanchnic nerve, the splenic nerve, the trigeminal nerve, and the paravertebral ganglia of sympathetic nerves.
A heat battery located in a substantially vertical or substantially horizontal orientation comprising: a battery cell case ; phase change material (i.e. PCM) located within the battery cell case ; at least one or a plurality of heat exchangers located within the battery cell case and immersed in the PCM ; an expandable device in the form of an inflatable gas balloon member which is capable of being inflated and/or deflated, the expandable device is located within the battery cell case and is capable of expanding and/or contracting to manage expansion and/or volumetric changes within the battery cell case ; a gas filling valve which extends through the battery cell case and is connected to the expandable device , wherein the gas filling valve is used to increase and/or decrease the pressure and/or amount of gas held within the expandable device ; control sensors which are used to monitor the expansion and/or contraction of the PCM by monitoring the level of the PCM ; wherein the cross-sectional diameter of the expandable device is expanded and/or contracted to adapt for the expansion and/or contraction of the PCM and/or any gas/air trapped within the battery cell case as measured by the control sensors; and wherein the expandable device is located within and against an inner surface of the battery cell case and also extends across an upper surface of the PCM and along an upper surface of a heat exchanger . a battery cell case ; phase change material (i.e. PCM) located within the battery cell case ; at least one or a plurality of heat exchangers located within the battery cell case and immersed in the PCM ; an expandable device in the form of an inflatable gas balloon member which is capable of being inflated and/or deflated, the expandable device is located within the battery cell case and is capable of expanding and/or contracting to manage expansion and/or volumetric changes within the battery cell case ; a gas filling valve which extends through the battery cell case and is connected to the expandable device , wherein the gas filling valve is used to increase and/or decrease the pressure and/or amount of gas held within the expandable device ; control sensors which are used to monitor the expansion and/or contraction of the PCM by monitoring the level of the PCM ; wherein the cross-sectional diameter of the expandable device is expanded and/or contracted to adapt for the expansion and/or contraction of the PCM and/or any gas/air trapped within the battery cell case as measured by the control sensors; and wherein the expandable device is located within and against an inner surface of the battery cell case and also extends across an upper surface of the PCM and along an upper surface of a heat exchanger .
A loom comprising: a driving shaft to which a main shaft of the loom is connected and to which a swing shaft for driving a reed to swing is connected via a swing mechanism ; a driving motor to which the driving shaft is connected via a driving-force transmission mechanism to rotationally drive the driving shaft ; a braking device that applies a brake to the main shaft connected to the driving shaft ; and a housing-shaped side frame that accommodates the driving shaft and the swing shaft in an orientation in which each axial direction of the driving shaft and the swing shaft matches with a width direction, characterized in that the driving-force transmission mechanism includes a driving-force transmission shaft that is provided so as to protrude from a side wall of the side frame while extending parallel to the driving shaft within a space of the side frame and connected to the driving motor , and a transmission mechanism that connects the driving-force transmission shaft and the driving shaft , and the transmission mechanism connects the driving-force transmission shaft and the driving shaft at a position on a main shaft side in the width direction from a connection position between the driving shaft and the swing mechanism . a driving shaft to which a main shaft of the loom is connected and to which a swing shaft for driving a reed to swing is connected via a swing mechanism ; a driving motor to which the driving shaft is connected via a driving-force transmission mechanism to rotationally drive the driving shaft ; a braking device that applies a brake to the main shaft connected to the driving shaft ; and a housing-shaped side frame that accommodates the driving shaft and the swing shaft in an orientation in which each axial direction of the driving shaft and the swing shaft matches with a width direction, characterized in that the driving-force transmission mechanism includes a driving-force transmission shaft that is provided so as to protrude from a side wall of the side frame while extending parallel to the driving shaft within a space of the side frame and connected to the driving motor , and a transmission mechanism that connects the driving-force transmission shaft and the driving shaft , and the transmission mechanism connects the driving-force transmission shaft and the driving shaft at a position on a main shaft side in the width direction from a connection position between the driving shaft and the swing mechanism .
An antibody or antigen binding fragment thereof, which specifically binds to ASCT2, for use in the treatment of a cancer characterized by overexpression of ASCT2, wherein the antibody or antigen-binding fragment comprises a heavy chain variable region (VH) and a light chain variable region (VL), wherein the VH comprises an amino acid sequence 100% identical to the reference amino acid sequence of SEQ ID NO: 3, and wherein the VL comprises an amino acid sequence 100% identical to the reference amino acid sequence of SEQ ID NO: 4, wherein said treatment comprises administering to a subject in need thereof an effective amount of said antibody or antigen binding fragment thereof and the cancer is selected from colorectal cancer, head and neck squamous cell carcinoma, prostate cancer, lung cancer, pancreatic cancer, melanoma, endometrial cancer, acute myelogenous leukemia, multiple myeloma, and diffuse large B-cell lymphoma.
A food dough spreading device for gradually spreading food dough to make it thinner, the device comprising: at least two opposite spreading rollers , wherein the rollers are positioned in such a way that the food dough can flow down between the rollers helped by its own weight; characterized in that it further comprises: a pair of vibration applying members provided between the at least two opposite spreading rollers , which can freely regulate a width dimension of the food dough to be spread by the spreading rollers and is position-adjustable in a longitudinal direction of the spreading rollers , wherein the vibration applying members are arranged to be reciprocatively vibrated in a direction approaching and separating from each other in the longitudinal direction of the spreading rollers at a position where the width dimension of the food dough is adjusted, thereby applying vibration to the food dough ; and a control device , wherein a distance at a closed position where the vibration applying members approach each other most closely is a closed distance (D1), and a distance at a position where the vibration applying members are separated furthest from each other is an open distance (D2), and the pair of vibration applying members are movable in the direction approaching and separating from each other by setting the closed distance (D1) and a stroke length (ST) of the pair of vibration applying members in the control device . a pair of vibration applying members provided between the at least two opposite spreading rollers , which can freely regulate a width dimension of the food dough to be spread by the spreading rollers and is position-adjustable in a longitudinal direction of the spreading rollers , wherein the vibration applying members are arranged to be reciprocatively vibrated in a direction approaching and separating from each other in the longitudinal direction of the spreading rollers at a position where the width dimension of the food dough is adjusted, thereby applying vibration to the food dough ; and a control device , wherein a distance at a closed position where the vibration applying members approach each other most closely is a closed distance (D1), and a distance at a position where the vibration applying members are separated furthest from each other is an open distance (D2), and the pair of vibration applying members are movable in the direction approaching and separating from each other by setting the closed distance (D1) and a stroke length (ST) of the pair of vibration applying members in the control device .
A method of selecting a session and service continuity , SSC, mode, associated with a protocol data unit, PDU, session, by a user equipment, UE, in a wireless communication system supporting a plurality of SSC modes, the method comprising: receiving (S1301) a request for data transmission from an application; checking (S1302, S1304) whether an already activated first PDU session is capable of supporting the SSC mode associated with the application; and characterized by if the first PDU session is capable of supporting the SSC mode associated with the application, transmitting (S1303) data of the application to a network using the first PDU session without requesting the network to establish a new second PDU session although an SSC mode of the first PDU session is not identical with the SSC mode associated with the application. receiving (S1301) a request for data transmission from an application; checking (S1302, S1304) whether an already activated first PDU session is capable of supporting the SSC mode associated with the application; and characterized by if the first PDU session is capable of supporting the SSC mode associated with the application, transmitting (S1303) data of the application to a network using the first PDU session without requesting the network to establish a new second PDU session although an SSC mode of the first PDU session is not identical with the SSC mode associated with the application.
Manufacturing method of oral dosage form containing berberine, characterized in that it contains the following steps: (i) homogenization of berberine with at least one glidant, the glidant optionally containing up to 20 wt% of a filler, to obtain a homogenous mixture A; (ii) homogenization of the homogenous mixture A from step (i) with at least one filler to obtain a homogenous mixture B; (iii) homogenization of the homogenous mixture B from step (ii) with at least one lubricant to obtain a homogenous mixture C; (iv) dry granulation and sieving of the homogenous mixture C from step (iii) to obtain a granulated mixture C; (v) homogenization of the granulated mixture C with at least one disintegrant to obtain a homogenous mixture D; (vi) preparation of oral dosage form selected from tablets, coated tablets, pills, orally disintegrating tablets, capsules, powders and/or granules using the homogenized mixture from step (v), whereas, optionally, berberine and the lubricant are in weight ratio from 200 : 1 to 5 : 1. (i) homogenization of berberine with at least one glidant, the glidant optionally containing up to 20 wt% of a filler, to obtain a homogenous mixture A; (ii) homogenization of the homogenous mixture A from step (i) with at least one filler to obtain a homogenous mixture B; (iii) homogenization of the homogenous mixture B from step (ii) with at least one lubricant to obtain a homogenous mixture C; (iv) dry granulation and sieving of the homogenous mixture C from step (iii) to obtain a granulated mixture C; (v) homogenization of the granulated mixture C with at least one disintegrant to obtain a homogenous mixture D; (vi) preparation of oral dosage form selected from tablets, coated tablets, pills, orally disintegrating tablets, capsules, powders and/or granules using the homogenized mixture from step (v), whereas, optionally, berberine and the lubricant are in weight ratio from 200 : 1 to 5 : 1.
An autonomous moving body configured to autonomously move between floors using an elevator installed in a facility, the autonomous moving body comprising: a determination unit configured to determine that the autonomous moving body has arrived at a waiting area on a current floor before the autonomous moving body gets on a car of the elevator; an orientation adjustment unit configured to adjust, when the determination unit determines that the autonomous moving body has arrived at the waiting area, an orientation of the autonomous moving body based on an exiting direction from the car on a destination floor; and a movement controller configured to cause, when the car arrives, the autonomous moving body to enter the car while maintaining the orientation adjusted by the orientation adjustment unit . a determination unit configured to determine that the autonomous moving body has arrived at a waiting area on a current floor before the autonomous moving body gets on a car of the elevator; an orientation adjustment unit configured to adjust, when the determination unit determines that the autonomous moving body has arrived at the waiting area, an orientation of the autonomous moving body based on an exiting direction from the car on a destination floor; and a movement controller configured to cause, when the car arrives, the autonomous moving body to enter the car while maintaining the orientation adjusted by the orientation adjustment unit .