mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire comprising: a tread portion provided on each side of the tire equator with a middle land portion defined between an axially outer shoulder main groove and an axially inner crown main groove each extending continuously in the tire circumferential direction, wherein said middle land portion is provided with axially inside middle lug grooves and axially outside middle lug grooves arranged alternately in the circumferential direction, the axially inside middle lug grooves and the axially outside middle lug grooves are inclined to the same direction, each of the axially inside middle lug grooves is connected to the crown main groove at an angle θ1 of from 20 to 45 degrees with respect to the tire circumferential direction so as to have an axially inner end opened to the crown main groove and an axially outer end terminating within the middle land portion, characterized in that each of the outside middle lug grooves is connected to the shoulder main groove at an angle θ2 of from 60 to 80 degrees with respect to the tire circumferential direction so as to have an axially outer end opened to the shoulder main groove and an axially inner end terminating within the middle land portion, wherein each of the inside middle lug grooves is a bent groove comprising an axially inner first part connected to the crown main groove and extending at the angle θ1, and an axially outer second part extending at an angle θ3 with respect to the tire circumferential direction which is more than the angle θ1. a tread portion provided on each side of the tire equator with a middle land portion defined between an axially outer shoulder main groove and an axially inner crown main groove each extending continuously in the tire circumferential direction, wherein said middle land portion is provided with axially inside middle lug grooves and axially outside middle lug grooves arranged alternately in the circumferential direction, the axially inside middle lug grooves and the axially outside middle lug grooves are inclined to the same direction, each of the axially inside middle lug grooves is connected to the crown main groove at an angle θ1 of from 20 to 45 degrees with respect to the tire circumferential direction so as to have an axially inner end opened to the crown main groove and an axially outer end terminating within the middle land portion, characterized in that each of the outside middle lug grooves is connected to the shoulder main groove at an angle θ2 of from 60 to 80 degrees with respect to the tire circumferential direction so as to have an axially outer end opened to the shoulder main groove and an axially inner end terminating within the middle land portion, wherein each of the inside middle lug grooves is a bent groove comprising an axially inner first part connected to the crown main groove and extending at the angle θ1, and an axially outer second part extending at an angle θ3 with respect to the tire circumferential direction which is more than the angle θ1.
A container tracking system comprising a plurality of containers having metallic walls, at least one of the containers having a radio frequency, RF, tag mounted on a metallic wall thereof for tracking the container, the RF tag having an antenna arranged to excite a transverse electromagnetic, TEM, wave relative to a ground plane of the antenna, which is substantially parallel to said metallic wall; the system being characterised by the containers being arranged such that the metallic walls of adjacent ones of the containers form a waveguide in which the antenna is arranged to excite the TEM wave with an electric field component thereof perpendicular to the metallic walls.
A method of generating a humid air flow, comprising the steps of: irradiating water stored in a reservoir with ultraviolet radiation; conveying an air flow over the water stored in the reservoir; and atomizing the water stored in the reservoir to humidify the air flow; characterized in that the water stored in the reservoir is agitated for a period of time during the irradiation of the water stored in the reservoir and which is prior to the atomization of the water stored in the reservoir. irradiating water stored in a reservoir with ultraviolet radiation; conveying an air flow over the water stored in the reservoir; and atomizing the water stored in the reservoir to humidify the air flow; characterized in that the water stored in the reservoir is agitated for a period of time during the irradiation of the water stored in the reservoir and which is prior to the atomization of the water stored in the reservoir.
An animal feed or animal feed additive comprising one or more polypeptides having protease activity, wherein the polypeptide having protease activity is selected from the group consisting of: (a) a polypeptide having at least 75% sequence identity to SEQ ID NO: 5; (b) a polypeptide having at least 75% sequence identity to SEQ ID NO: 14; and (c) a polypeptide having at least 75% sequence identity to SEQ ID NO: 20; wherein: the polypeptide has at least 2 times higher activity on soybean-maize meal at pH 4 than the activity of Protease 10R (SEQ ID NO: 8) at the same pH; the polypeptide has at least 2 times higher activity on soybean-maize meal at pH 5 than the activity of Protease 10R (SEQ ID NO: 8) at the same pH; and the polypeptide has at least 75% of the activity on soybean-maize meal at pH 7 compared to Protease 10R (SEQ ID NO: 8) at the same pH; or wherein: the polypeptide has at least 25% of the activity on soybean-maize meal at pH 4 compared to the activity at pH 7; the polypeptide has at least 45% of the activity on soybean-maize meal at pH 5 compared to the activity at pH 7; and the polypeptide has at least 75% of the activity on soybean-maize meal at pH 7 compared to Protease 10R (SEQ ID NO: 8) at the same pH; wherein the degree of sequence identity between two amino acid sequences is determined using the Needleman-Wunsch algorithm, employing the parameters set forth in the description. (a) a polypeptide having at least 75% sequence identity to SEQ ID NO: 5; (b) a polypeptide having at least 75% sequence identity to SEQ ID NO: 14; and (c) a polypeptide having at least 75% sequence identity to SEQ ID NO: 20; wherein: the polypeptide has at least 2 times higher activity on soybean-maize meal at pH 4 than the activity of Protease 10R (SEQ ID NO: 8) at the same pH; the polypeptide has at least 2 times higher activity on soybean-maize meal at pH 5 than the activity of Protease 10R (SEQ ID NO: 8) at the same pH; and the polypeptide has at least 75% of the activity on soybean-maize meal at pH 7 compared to Protease 10R (SEQ ID NO: 8) at the same pH; or the polypeptide has at least 2 times higher activity on soybean-maize meal at pH 4 than the activity of Protease 10R (SEQ ID NO: 8) at the same pH; the polypeptide has at least 2 times higher activity on soybean-maize meal at pH 5 than the activity of Protease 10R (SEQ ID NO: 8) at the same pH; and the polypeptide has at least 75% of the activity on soybean-maize meal at pH 7 compared to Protease 10R (SEQ ID NO: 8) at the same pH; or the polypeptide has at least 25% of the activity on soybean-maize meal at pH 4 compared to the activity at pH 7; the polypeptide has at least 45% of the activity on soybean-maize meal at pH 5 compared to the activity at pH 7; and the polypeptide has at least 75% of the activity on soybean-maize meal at pH 7 compared to Protease 10R (SEQ ID NO: 8) at the same pH;
Placental stem cells for use in a method of treating a graft versus host disease, inflammation, or formation of inflammation-related scar tissue, wherein said placental stem cells detectably suppress CD4+ or CD8+ T cell proliferation in a mixed lymphocyte reaction assay, wherein said placental stem cells are not trophoblasts; and wherein at least 80% of said placental stem cells express CD200 and HLA-G; express CD73, C105, and CD200; express CD200 and OCT-4; or express CD73, CD105, and HLA-G. express CD200 and HLA-G; express CD73, C105, and CD200; express CD200 and OCT-4; or express CD73, CD105, and HLA-G.
A parking position adjustment device comprising: a current position setting unit that sets the position in which a vehicle is already parked as a current position (Pp); a parking space specification unit that specifies a parking space (Ss), in which the vehicle is parked, that includes the current position (Pp); a target parking position setting unit that sets, within the parking space (Ss), a target parking position (Pg) to which the vehicle is to be moved from the current position (Pp); and a movement path calculation unit that calculates a movement path of the vehicle from the current position (Pp) to the target parking position (Pg), characterized in that the parking position adjustment device further comprises a camera that obtains a peripheral image by capturing an image of conditions in the periphery of the vehicle parked in the parking space (Ss), the target parking position setting unit is configured so as to input a correction amount (Hm) from the current position (Pp) of the vehicle to the target parking position (Pg), and the target parking position setting unit sets an allowable input range for the correction amount (Hm) based on the distance from the vehicle to an object included in the peripheral image and an entry/exit space for an occupant of the vehicle. a current position setting unit that sets the position in which a vehicle is already parked as a current position (Pp); a parking space specification unit that specifies a parking space (Ss), in which the vehicle is parked, that includes the current position (Pp); a target parking position setting unit that sets, within the parking space (Ss), a target parking position (Pg) to which the vehicle is to be moved from the current position (Pp); and a movement path calculation unit that calculates a movement path of the vehicle from the current position (Pp) to the target parking position (Pg), characterized in that the parking position adjustment device further comprises a camera that obtains a peripheral image by capturing an image of conditions in the periphery of the vehicle parked in the parking space (Ss), the target parking position setting unit is configured so as to input a correction amount (Hm) from the current position (Pp) of the vehicle to the target parking position (Pg), and the target parking position setting unit sets an allowable input range for the correction amount (Hm) based on the distance from the vehicle to an object included in the peripheral image and an entry/exit space for an occupant of the vehicle.
Cord comprising fully aromatic polyamide fiber which fiber comprises a copolymer formed by the polycondensation of structural units with structural formula I and structural units with structural formula II wherein the cord comprises at least two yarns comprising the para type fully aromatic polyamide fiber with each yarn having a linear density of at least 50 dtex and the cord has a twist factor of at least 5, wherein formula I is and formula II is wherein the fiber comprises 30-60 mole% of structural units of structural formula II based on the total amount of structural units of structural formula I and II and wherein the fiber additionally comprises a structural unit with structural formula III, wherein formula III is and wherein the fiber comprises 10-20 mole% of the structural unit with the structural formula III based on the total amount of structural units with structural formula I, II and III.
A method in a User Equipment, UE, for generating a second scrambling code group, where the UE is configured for multi carrier operation receiving downlink transmission from a Universal Mobile Telecommunications System Terrestrial Radio Access Network, UTRAN, on a set of at least two downlink carriers including an anchor carrier and at least a first secondary carrier, the method comprising the steps of: - determining a first scrambling code group associated with a first cell on the anchor carrier; - deriving a second scrambling code group associated with a second cell on said first secondary carrier using a predefined rule defining the relation between the second scrambling code group and the first scrambling code group, wherein the UE is configured as having a first serving cell on the anchor carrier and a second serving cell on the first secondary carrier for reception of data from the UTRAN, and wherein the first cell is a neighbor cell to the first serving cell on the anchor carrier and the second cell is a neighbor cell to the second serving cell on the first secondary carrier. - determining a first scrambling code group associated with a first cell on the anchor carrier; - deriving a second scrambling code group associated with a second cell on said first secondary carrier using a predefined rule defining the relation between the second scrambling code group and the first scrambling code group, wherein the UE is configured as having a first serving cell on the anchor carrier and a second serving cell on the first secondary carrier for reception of data from the UTRAN, and wherein the first cell is a neighbor cell to the first serving cell on the anchor carrier and the second cell is a neighbor cell to the second serving cell on the first secondary carrier.
A sleep training device, comprising: a printed circuit board comprising a processor, a real-time clock integrated circuit, a memory, and a wireless communication unit; a capacitive touch component electrically coupled to the processor; an audio component electrically coupled to the processor; light-emitting diodes (LEDs) electrically coupled to the processor; physical switches electrically coupled to the processor, wherein the physical switches are configured to control at least one of the LEDs and the audio component; a device housing configured to house the PCB, the audio component, the LEDs, and at least part of the physical switches and the capacitive touch component, wherein at least part of the capacitive touch component is exposed by the device housing; and characterized in that the processor is programmed to execute instructions stored in the memory to disable at least one of the physical switches and the capacitive touch component when a sleep program stored in the memory is initiated. a printed circuit board comprising a processor, a real-time clock integrated circuit, a memory, and a wireless communication unit; a capacitive touch component electrically coupled to the processor; an audio component electrically coupled to the processor; light-emitting diodes (LEDs) electrically coupled to the processor; physical switches electrically coupled to the processor, wherein the physical switches are configured to control at least one of the LEDs and the audio component; a device housing configured to house the PCB, the audio component, the LEDs, and at least part of the physical switches and the capacitive touch component, wherein at least part of the capacitive touch component is exposed by the device housing; and characterized in that the processor is programmed to execute instructions stored in the memory to disable at least one of the physical switches and the capacitive touch component when a sleep program stored in the memory is initiated.
A method of optimal control of a space launcher carrying a payload to obtain an optimal trajectory of the launcher so as to reach a determined orbital position by minimizing an amount of used fuel and by meeting a certain number of constraints, the optimal deterministic trajectory γ solving a problem P, the system launcher being able to be controlled by commands comprised in a set A, the dynamic behavior of the system launcher being described by a dynamic function f, the problem P being the obtainment of an optimal deterministic physical trajectory of the launcher reaching a target C in a minimum time t f and addressing constraints described by a mixed state/control constraint function g, the method comprising: - a first step of transposing the problem P into Hamilton Jacobi Bellman equations relating an integer number d of state variables and their respective adjoints, d being the dimension of a state space of the system; - a second step of numerical resolution of the Hamilton Jacobi Bellman equations by discretizing them by an anti-diffusive method, called «ultrabee» on spatial and temporal grids representing the state space and time, characterized in that it comprises: - a third step of implementing grids by hollow data structures, - a fourth step of calculating the minimum time function, - a fifth step where an optimal trajectory is reconstructed from the values obtained at the fourth step, the second, third, fourth and fifth steps being implemented by a computer. - a first step of transposing the problem P into Hamilton Jacobi Bellman equations relating an integer number d of state variables and their respective adjoints, d being the dimension of a state space of the system; - a second step of numerical resolution of the Hamilton Jacobi Bellman equations by discretizing them by an anti-diffusive method, called «ultrabee» on spatial and temporal grids representing the state space and time, - a third step of implementing grids by hollow data structures, - a fourth step of calculating the minimum time function, - a fifth step where an optimal trajectory is reconstructed from the values obtained at the fourth step,
An aluminum casting alloy consisting of: 8.5 - 9.5 wt. % silicon; 0.5 - 2.0 wt. % copper (Cu); wherein the alloy includes i. 1.35 - 2.0 wt. % copper and 0.27 - 0.445 wt. % magnesium, or ii. 0.5 - 0.75 wt. % copper and 0.395 - 0.53 wt. % magnesium, or iii. 0.75 - 1.35 wt. % copper and 0.335 - 0.505 wt. % magnesium; 0.27 - 0.53 wt. % magnesium (Mg); wherein the aluminum casting alloy includes copper and magnesium such that 4.7 ≤ (Cu+10Mg) ≤ 5.8; up to 0.25 wt. % zinc; up to 1.0 wt. % silver; up to 1.0 wt. % nickel up to 1.0 wt. % hafnium up to 1.0 wt. % manganese up to 1.0 wt. % iron; up to 0.30 wt. % titanium; up to 0.30 wt. % zirconium; up to 0.30 wt. % vanadium; up to 0.10 wt. % of one or more of strontium, sodium and antimony; other elements being ≤ 0.04 wt. % each and ≤ 0.12 wt. % in total; the balance being aluminum. 8.5 - 9.5 wt. % silicon; 0.5 - 2.0 wt. % copper (Cu); wherein the alloy includes i. 1.35 - 2.0 wt. % copper and 0.27 - 0.445 wt. % magnesium, or ii. 0.5 - 0.75 wt. % copper and 0.395 - 0.53 wt. % magnesium, or iii. 0.75 - 1.35 wt. % copper and 0.335 - 0.505 wt. % magnesium; i. 1.35 - 2.0 wt. % copper and 0.27 - 0.445 wt. % magnesium, or ii. 0.5 - 0.75 wt. % copper and 0.395 - 0.53 wt. % magnesium, or iii. 0.75 - 1.35 wt. % copper and 0.335 - 0.505 wt. % magnesium; 0.27 - 0.53 wt. % magnesium (Mg); wherein the aluminum casting alloy includes copper and magnesium such that 4.7 ≤ (Cu+10Mg) ≤ 5.8; wherein the aluminum casting alloy includes copper and magnesium such that 4.7 ≤ (Cu+10Mg) ≤ 5.8; up to 0.25 wt. % zinc; up to 1.0 wt. % silver; up to 1.0 wt. % nickel up to 1.0 wt. % hafnium up to 1.0 wt. % manganese up to 1.0 wt. % iron; up to 0.30 wt. % titanium; up to 0.30 wt. % zirconium; up to 0.30 wt. % vanadium; up to 0.10 wt. % of one or more of strontium, sodium and antimony; other elements being ≤ 0.04 wt. % each and ≤ 0.12 wt. % in total;
A method for preparing a sorbent comprising the steps of: (i) forming a mixture consisting of a particulate copper sulphide and a particulate calcined, rehydratable alumina, (ii) shaping the mixture, and (iii) drying the shaped mixture to form a dried sorbent. (i) forming a mixture consisting of a particulate copper sulphide and a particulate calcined, rehydratable alumina, (ii) shaping the mixture, and (iii) drying the shaped mixture to form a dried sorbent.
Method for matching the impedance of a load to the output impedance of a power generator, comprising the following method steps: a. generating power by means of a power generator; b. supplying the power to a load by means of an impedance matching arrangement comprising at least one reactance (18, 20, 22) which can be adjusted by an actuator (12, 14, 16), wherein the impedance matching arrangement transforms the load impedance at the input end of the load into a transformed load impedance at the input end of the impedance matching arrangement; c. detecting or determining power reflected at the load, or at least one variable related thereto; d. checking, on the basis of the reflected power or the at least one variable related thereto, whether there is a mismatch; characterized by e. determining a trajectory in a complex load plane, in particular in a Smith chart, according to at least one specified criterion; f. controlling the at least one actuator (12, 14, 16) such that the transformed load impedance follows the trajectory, wherein a first part of the trajectory is determined according to a first criterion and a second part of the trajectory is determined according to a second different criterion. a. generating power by means of a power generator; b. supplying the power to a load by means of an impedance matching arrangement comprising at least one reactance (18, 20, 22) which can be adjusted by an actuator (12, 14, 16), wherein the impedance matching arrangement transforms the load impedance at the input end of the load into a transformed load impedance at the input end of the impedance matching arrangement; c. detecting or determining power reflected at the load, or at least one variable related thereto; d. checking, on the basis of the reflected power or the at least one variable related thereto, whether there is a mismatch; characterized by e. determining a trajectory in a complex load plane, in particular in a Smith chart, according to at least one specified criterion; f. controlling the at least one actuator (12, 14, 16) such that the transformed load impedance follows the trajectory, wherein a first part of the trajectory is determined according to a first criterion and a second part of the trajectory is determined according to a second different criterion.