mhurhangee/ep-ind-claims huggingface dataset:
Tripeptide having X-KGH-Z or X-KHG-Z formula; wherein: • At the N-terminal end X is selected from H, -CO-R 1 and -SO 2 -R 1; • At the C-terminal end Z is selected from OH, OR 1, NH 2, NHR 1 or NR 1 R 2; and • R 1 and R 2 are, independently from each other, an alkyle chain of 1 to 24 carbon atoms, except tripeptides wherein (X=H and Z=OH) or (X=H and Z=NH 2) and except the tripeptide KHG-N-octyl ester wherein X=H and Z=OR 1 with R 1 being an alkyl chain of 8 carbon atoms. • At the N-terminal end X is selected from H, -CO-R 1 and -SO 2 -R 1; • At the C-terminal end Z is selected from OH, OR 1, NH 2, NHR 1 or NR 1 R 2; and • R 1 and R 2 are, independently from each other, an alkyle chain of 1 to 24 carbon atoms, except tripeptides wherein (X=H and Z=OH) or (X=H and Z=NH 2) and except the tripeptide KHG-N-octyl ester wherein X=H and Z=OR 1 with R 1 being an alkyl chain of 8 carbon atoms.
An information transmission method, comprising: obtaining, by a terminal device, a to-be-sent pilot sequence, wherein the to-be-sent pilot sequence is a Reed-Muller sequence; and sending, by the terminal device, the to-be-sent pilot sequence, wherein the to-be-sent pilot sequence is generated according to a Reed-Muller sequence generation formula., characterized in that the to-be-sent pilot sequence is an order-2 Reed-Muller sequence generated according to a formula φ p, b a = 1 2 m i 2 b + pb T a, wherein a length of the pilot sequence is 2 m and m is a positive integer; p is a matrix of m rows and m columns; b is a vector of m rows; a is a bit vector with a length of m and consisting of 0s and 1s, has a total of 2 m possible values, and is corresponding to 2 m elements of the pilot sequence; and i 2 =-1, wherein the obtaining, by a terminal device, a to-be-sent pilot sequence is specifically: determining the length of the to-be-sent pilot sequence, wherein the length of the to-be-sent pilot sequence is 2 m; determining the matrix p of m rows and m columns and the vector b of m rows; and generating an order-2 Reed-Muller sequence as the to-be-sent pilot sequence according to the formula φ p, b a = 1 2 m i 2 b + pb T a. obtaining, by a terminal device, a to-be-sent pilot sequence, wherein the to-be-sent pilot sequence is a Reed-Muller sequence; and sending, by the terminal device, the to-be-sent pilot sequence, wherein the to-be-sent pilot sequence is generated according to a Reed-Muller sequence generation formula., characterized in that the to-be-sent pilot sequence is an order-2 Reed-Muller sequence generated according to a formula φ p, b a = 1 2 m i 2 b + pb T a, wherein a length of the pilot sequence is 2 m and m is a positive integer; p is a matrix of m rows and m columns; b is a vector of m rows; a is a bit vector with a length of m and consisting of 0s and 1s, has a total of 2 m possible values, and is corresponding to 2 m elements of the pilot sequence; and i 2 =-1, wherein the obtaining, by a terminal device, a to-be-sent pilot sequence is specifically: determining the length of the to-be-sent pilot sequence, wherein the length of the to-be-sent pilot sequence is 2 m; determining the matrix p of m rows and m columns and the vector b of m rows; and generating an order-2 Reed-Muller sequence as the to-be-sent pilot sequence according to the formula φ p, b a = 1 2 m i 2 b + pb T a.
A cap (21, 41) for a medical injection device (20, 40), the cap (21, 41) comprising: a needle shield comprising a body with a recess for receiving at least part of a needle hub of a needle syringe; characterized in that the cap further comprises, a piercing member (31, 51) movable from an initial position, wherein a portion of the body is located between the recess and the piercing member (31, 51), to a cap removal position, wherein the piercing member (31, 51) punctures the body of the needle shield to fluidly communicate with the recess to allow the ingress of gas into the recess. a needle shield comprising a body with a recess for receiving at least part of a needle hub of a needle syringe; characterized in that the cap further comprises, a piercing member (31, 51) movable from an initial position, wherein a portion of the body is located between the recess and the piercing member (31, 51), to a cap removal position, wherein the piercing member (31, 51) punctures the body of the needle shield to fluidly communicate with the recess to allow the ingress of gas into the recess.
A pipe joint comprising a male joint (12A, 12B) and a female joint (18A, 18B) into which a leading end of the male joint is inserted, wherein the male joint (12A, 12B) has: a male joint main body (24A, 24B) having a base end and a leading end; characterised in that the male joint (12A, 12B) further has: a cap (26A, 26B) that is fixed at the base end of the male joint main body (24A, 24B), with a male joint O-ring interposed between the cap (26A, 26B) and the male joint main body (24A, 24B), wherein a cross-sectional diameter of the male joint O-ring is 3 to 10 mm, and wherein a clearance between the male joint main body (24A, 24B) and the cap (26A, 26B) is 3 to 13% of the cross-sectional diameter of the male joint O-ring. a male joint main body (24A, 24B) having a base end and a leading end; characterised in that the male joint (12A, 12B) further has: a cap (26A, 26B) that is fixed at the base end of the male joint main body (24A, 24B), with a male joint O-ring interposed between the cap (26A, 26B) and the male joint main body (24A, 24B), wherein a cross-sectional diameter of the male joint O-ring is 3 to 10 mm, and wherein a clearance between the male joint main body (24A, 24B) and the cap (26A, 26B) is 3 to 13% of the cross-sectional diameter of the male joint O-ring. a cap (26A, 26B) that is fixed at the base end of the male joint main body (24A, 24B), with a male joint O-ring interposed between the cap (26A, 26B) and the male joint main body (24A, 24B), wherein a cross-sectional diameter of the male joint O-ring is 3 to 10 mm, and wherein a clearance between the male joint main body (24A, 24B) and the cap (26A, 26B) is 3 to 13% of the cross-sectional diameter of the male joint O-ring.
A method of controlling inter-cell signal interference, the method being applied to a base station and comprising: generating a subcarrier pattern of Physical Broadcast Channel, PBCH symbols for a present cell based on an agreed Demodulation Reference Signal, DMRS, configuration mode, every N resource elements in the subcarrier pattern of the PBCH symbols comprising one resource element for a DMRS and (N-1) resource elements for a PBCH, wherein N is a natural number greater than 2; generating a synchronization block of the present cell based on the subcarrier pattern of the PBCH symbols for the present cell; sending the synchronization block of the present cell directionally by beam sweeping; and characterized by, sending, by the present cell, system information carrying configuration information of a cell reference signal for a neighboring cell to User Equipment, UE, wherein the configuration information comprises a position of a starting resource element of a DMRS in a synchronization block of the neighboring cell. generating a subcarrier pattern of Physical Broadcast Channel, PBCH symbols for a present cell based on an agreed Demodulation Reference Signal, DMRS, configuration mode, every N resource elements in the subcarrier pattern of the PBCH symbols comprising one resource element for a DMRS and (N-1) resource elements for a PBCH, wherein N is a natural number greater than 2; generating a synchronization block of the present cell based on the subcarrier pattern of the PBCH symbols for the present cell; sending the synchronization block of the present cell directionally by beam sweeping; and characterized by, sending, by the present cell, system information carrying configuration information of a cell reference signal for a neighboring cell to User Equipment, UE, wherein the configuration information comprises a position of a starting resource element of a DMRS in a synchronization block of the neighboring cell.
Rechargeable battery pack having at least two pouch cells (10, 10') stacked on top of one another, wherein each of the pouch cells (10, 10') is encased in a metal film (11, 11'), characterized in that the metal films (11, 11') are electrically insulated from one another and the metal films (11, 11'), for the purpose of measuring a capacitor capacitance (C A, C N) formed by the metal films (11, 11'), are each electrically contacted.
A method of data communication, comprising: generating, at a transmitter device, a transition number from a set of bits; converting, at the transmitter device, the transition number into a sequence of symbols, wherein timing information is encoded in transitions between symbols in the sequence of symbols; and transmitting, from the transmitter device, the sequence of symbols on a two-wire serial bus when the two-wire serial bus is operated in a first mode of operation, wherein each transition between consecutive symbols causes a change in a signaling state of the two-wire serial bus, wherein the sequence of symbols is ignored by any other device deployed on the two-wire serial bus which is configured to communicate using a second mode of operation of the two-wire serial bus; and wherein converting the transition number into the sequence of symbols comprises: converting the set of bits to a ternary transition number; and providing the ternary transition number to a transcoder, wherein a most significant digit of the ternary transition number is provided to the transcoder first, a least significant digit of the ternary transition number is provided to the transcoder last, and intermediate digits between the most significant digit and the least significant digit are provided to the transcoder in order of decreasing significance. generating, at a transmitter device, a transition number from a set of bits; converting, at the transmitter device, the transition number into a sequence of symbols, wherein timing information is encoded in transitions between symbols in the sequence of symbols; and transmitting, from the transmitter device, the sequence of symbols on a two-wire serial bus when the two-wire serial bus is operated in a first mode of operation, wherein each transition between consecutive symbols causes a change in a signaling state of the two-wire serial bus, wherein the sequence of symbols is ignored by any other device deployed on the two-wire serial bus which is configured to communicate using a second mode of operation of the two-wire serial bus; and wherein converting the transition number into the sequence of symbols comprises: converting the set of bits to a ternary transition number; and providing the ternary transition number to a transcoder, wherein a most significant digit of the ternary transition number is provided to the transcoder first, a least significant digit of the ternary transition number is provided to the transcoder last, and intermediate digits between the most significant digit and the least significant digit are provided to the transcoder in order of decreasing significance. converting the set of bits to a ternary transition number; and providing the ternary transition number to a transcoder, wherein a most significant digit of the ternary transition number is provided to the transcoder first, a least significant digit of the ternary transition number is provided to the transcoder last, and intermediate digits between the most significant digit and the least significant digit are provided to the transcoder in order of decreasing significance.
A plastic transport and storage container for a filling material, comprising an inner container with a capacity of 50 to 5000 l for receiving the filling material, which is made of plastic material, an outer container which is open at the top, accommodates the inner container and includes at least one layer of electrically conductive plastic material, wherein a lid comprising at least one layer of electrically conductive plastic material covers the outer container, characterized in that the inner container has a single-layer wall structure, and the outer circumferential surface of the inner container, which is closed at the top, is surrounded by an electrically conductive flexible material (50, 16), and the transport and storage container comprises at least one electrically conductive flap which covers at least a part of the upper side of the inner container, the flap being electrically connected to the electrically conductive material on the circumferential surface of the inner container, wherein between the upper side of the inner container and the lid a connecting element (40, 42) is arranged such that the flap is connected to the electrically conductive layer of the lid in an electrically conductive manner in the closed state of the outer container.
A method at a radio equipment control, REC, of a base station for transmitting data to a radio equipment, RE, via Ethernet, said method comprising: in an adaptive physical layer, APL, adapting data frames complying with a remote radio protocol to Ethernet data frames that are suitable for transmission over an Ethernet physical layer, PHY,; and transmitting the adapted Ethernet data frames over the Ethernet physical layer, PHY,; characterized in that the method further comprises adapting the reference clock of the Ethernet physical layer, PHY,; wherein the adapting comprises filling the data frames complying with the remote radio protocol with redundant bytes within idle time slots, wherein the redundant bytes include control information inside the Ethernet data frame and control information filled between the Ethernet data frames; and wherein the Ethernet data frames are transmitted to the Ethernet physical layer, PHY, of the radio equipment, RE, via a 10 gigabit attachment unit interface, XAUI, over optical fiber or via a 10 Gigabit Media Independent Interface, XGMII, over optical fiber. in an adaptive physical layer, APL, adapting data frames complying with a remote radio protocol to Ethernet data frames that are suitable for transmission over an Ethernet physical layer, PHY,; and transmitting the adapted Ethernet data frames over the Ethernet physical layer, PHY,; characterized in that the method further comprises adapting the reference clock of the Ethernet physical layer, PHY,; wherein the adapting comprises filling the data frames complying with the remote radio protocol with redundant bytes within idle time slots, wherein the redundant bytes include control information inside the Ethernet data frame and control information filled between the Ethernet data frames; and wherein the Ethernet data frames are transmitted to the Ethernet physical layer, PHY, of the radio equipment, RE, via a 10 gigabit attachment unit interface, XAUI, over optical fiber or via a 10 Gigabit Media Independent Interface, XGMII, over optical fiber.
A vehicle height adjustment device comprising: a changer (21, 22) configured to change a relative position of a body of a vehicle, which comprises a plurality of wheels (2, 3), relative to an axle of each of the plurality of wheels (2, 3) of the vehicle; a vehicle speed obtainer configured to obtain a vehicle speed (Vv), which is a traveling speed of the vehicle; a vehicle height controller configured to control a vehicle height, which is a height of the body, based on the vehicle speed (Vv) obtained by the vehicle speed obtainer; and a malfunction detector configured to detect a failure of the vehicle speed obtainer to obtain an accurate value of the vehicle speed characterized in that when the malfunction detector detects the failure, the vehicle height controller is configured to control the vehicle height based on a vehicle speed (Vv) obtained by the vehicle speed obtainer before occurrence of the failure. a changer (21, 22) configured to change a relative position of a body of a vehicle, which comprises a plurality of wheels (2, 3), relative to an axle of each of the plurality of wheels (2, 3) of the vehicle; a vehicle speed obtainer configured to obtain a vehicle speed (Vv), which is a traveling speed of the vehicle; a vehicle height controller configured to control a vehicle height, which is a height of the body, based on the vehicle speed (Vv) obtained by the vehicle speed obtainer; and a malfunction detector configured to detect a failure of the vehicle speed obtainer to obtain an accurate value of the vehicle speed
A valve comprising: a flapper member; a barrel coupled to the flapper member, the barrel having an interior surface and an interior volume and a first movable vane and a second movable vane within the interior volume; and, a shaft rotationally coupled to the barrel, the shaft having a first stationary vane and a second stationary vane disposed within the interior volume, wherein: the barrel includes a first closed end and a second closed end, the shaft extending through the first closed end and the second closed end; and the first stationary vane, the first movable vane and the interior volume define an enclosed space, and the second stationary vane, the second movable vane and the interior volume define an enclosed space, the enclosed spaces (86,88) decreasing in volume as the flapper member moves from an open position to a closed position, thus dampening the movement of the flapper member, and characterized in that the barrel further includes at least one hole (90,92) fluidly coupled between an exterior of the barrel and the interior volume. a flapper member; a barrel coupled to the flapper member, the barrel having an interior surface and an interior volume and a first movable vane and a second movable vane within the interior volume; and, a shaft rotationally coupled to the barrel, the shaft having a first stationary vane and a second stationary vane disposed within the interior volume, the barrel includes a first closed end and a second closed end, the shaft extending through the first closed end and the second closed end; and the first stationary vane, the first movable vane and the interior volume define an enclosed space, and
An additive masterbatch composition comprising a semi-crystalline polyolefin carrier resin and an additive package comprising a product of a reaction of an acidic condensation catalyst and a secondary diarylamine of formula: (R 1 -Ar) 2 NH, wherein each Ar is benzene-1,4-diyl or both Ar are bonded to each other and taken together with the NH of formula constitute a carbazol-3,6-diyl; and each R 1 is independently (C 1 -C 20)hydrocarbyl; wherein is 50 to 99 weight percent (wt%) and the additive package is from 1 to 50 wt% of total weight (100.00 wt%) of the additive masterbatch composition; wherein the additive masterbatch composition is free of an ethylene/silane copolymer; wherein the semi-crystalline polyolefin carrier resin has a crystallinity of 50 to <100 wt% as determined by differential scanning calorimetry according to ASTM D3418-5 or the Crystallinity Test method described in the description; and wherein the acidic condensation catalyst is (i) an organosulfonic acid, an organophosphonic acid, or a hydrogen halide; (ii) an organosulfonic acid; (iii) an alkyl-substituted arylsulfonic acid; (iv) an alkyl-substituted arylsulfonic acid wherein there is/are 1 or 2 (C 5 -C 20)alkyl substituent(s) and 1 aryl group that is phenyl or naphthyl; (v) a (C 1 -C 5)alkylphosphonic acid, wherein the (C 1 -C 5)alkyl is unsubstituted or substituted with one - NH2 group; (vi) HF, HCl, or HBr; or (vii) a combination of any two or more of (i) to (vi).
A method of producing a non-oriented electrical steel sheet by hot rolling a raw steel material comprising C: not more than 0.03 mass%, Si: not more than 4 mass%, Mn: 0.03~3 mass%, Al: not more than 3 mass%, S: not more than 0.005 mass%, N: not more than 0.005 mass%, optionally comprising one or two of Sn and Sb in an amount of 0.005-0.5 mass%, respectively, and the balance being Fe and incidental impurities, hot band annealing, cold rolling and then finishing annealing to produce a non-oriented electrical steel sheet, characterized in that a crystal grain size before the cold rolling is rendered into not more than 100 μm and the finishing annealing is conducted by rapidly heating up to a temperature exceeding recrystallization temperature at an average temperature rising rate of not less than 100°C/sec.
Windmill driven energy converting device comprising a number of wind blades attached to a shaft that is connected to: a rotor with permanent magnets, which rotor is arranged inside or outside a stator having an electrically conducting wall that is configured to be subjected to magnetic induction generated by the rotation of the permanent magnets and thus configured to generate heat through generation of eddy currents and a heat exchanger comprising a heat-carrying media (e.g. a fluid) configured to take up thermal energy from the conducting wall, and optionally a generator whereby the windmill driven energy converting device comprises a rotatable mounted wind guide that is configured to change its orientation according to the wind direction and that wind guide is configured to guide the wind from a first direction being basically perpendicular to the longitudinal axis of the shaft to a second direction being basically parallel to the longitudinal axis of the shaft and that the direction of the wind leaving the converting device is basically parallel to the longitudinal axis of the shaft, characterised in that the axial position of the electrically conducting wall relative to the rotor can be changed to control mechanical resistance by generation of eddy current and rotational speed of the rotor. a rotor with permanent magnets, which rotor is arranged inside or outside a stator having an electrically conducting wall that is configured to be subjected to magnetic induction generated by the rotation of the permanent magnets and thus configured to generate heat through generation of eddy currents and a heat exchanger comprising a heat-carrying media (e.g. a fluid) configured to take up thermal energy from the conducting wall, and optionally a generator whereby the windmill driven energy converting device comprises a rotatable mounted wind guide that is configured to change its orientation according to the wind direction and that wind guide is configured to guide the wind from a first direction being basically perpendicular to the longitudinal axis of the shaft to a second direction being basically parallel to the longitudinal axis of the shaft and that the direction of the wind leaving the converting device is basically parallel to the longitudinal axis of the shaft, characterised in that the axial position of the electrically conducting wall relative to the rotor can be changed to control mechanical resistance by generation of eddy current and rotational speed of the rotor.