mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting a failure of a belt connecting an alternator-starter to a heat engine , characterized in that : - the speed of the alternator-starter is measured or estimated when the heat engine is turning (MTH tour) at an engine speed (Nm) comprised between two predefined engine speed thresholds and if the speed of the alternator- starter (Na, Nb) proves to be less than a first predefined speed value (Nd1) at least for a first predefined duration (td1), the belt is detected as being potentially broken, - then, a generator torque (Cg) zero is imposed on the alternator-starter , and if the speed of the alternator-starter (Na, Nb) proves to be lower than a second value of speed (Nd2) predefined during a second duration (td2) predefined, the belt is confirmed as being broken or in if the second predefined speed value (Nd2) is reached before the end of the second predefined duration (td2), the belt is considered to be slippery but not broken. - the speed of the alternator-starter is measured or estimated when the heat engine is turning (MTH tour) at an engine speed (Nm) comprised between two predefined engine speed thresholds and if the speed of the alternator- starter (Na, Nb) proves to be less than a first predefined speed value (Nd1) at least for a first predefined duration (td1), the belt is detected as being potentially broken, - then, a generator torque (Cg) zero is imposed on the alternator-starter , and if the speed of the alternator-starter (Na, Nb) proves to be lower than a second value of speed (Nd2) predefined during a second duration (td2) predefined, the belt is confirmed as being broken or in if the second predefined speed value (Nd2) is reached before the end of the second predefined duration (td2), the belt is considered to be slippery but not broken.
A heat exchanger arrangement for use with an air conditioning system comprising a condenser , an expansion device , an evaporator and a compressor connected in a refrigeration circuit filled with refrigerant, the heat exchanger arrangement comprising: a collector arrangement for collecting condensate fluid that has condensed on the evaporator as condensate fluid; and a first heat exchanger, the first heat exchanger being configured for facilitating the transfer of heat from an airflow (A) flowing to the condenser , to condensate received from the evaporator , characterized in that the heat exchanger arrangement comprises a second heat exchanger configured for facilitating the transfer of heat from refrigerant to condensate received from the evaporator , and wherein the second heat exchanger is located within a container associated with, and located at an upper portion of, the first heat exchanger . the heat exchanger arrangement comprises a second heat exchanger configured for facilitating the transfer of heat from refrigerant to condensate received from the evaporator , and wherein the second heat exchanger is located within a container associated with, and located at an upper portion of, the first heat exchanger .
A method for connecting to a 4G network, wherein the method is performed by a terminal equipment , the method comprises: determining a radio resource, RR, state when the terminal equipment is not currently registered in the 4G network, wherein the RR state comprises an idle state and a non-idle state; characterized in that the method further comprises: determining a first duration in which the terminal equipment is in the non-idle state but not registered in the 4G network, when the RR state is the non-idle state; and releasing the RR state to the idle state to enable the terminal equipment to re-select to connect to the 4G network, when the first duration exceeds a first time threshold. determining a radio resource, RR, state when the terminal equipment is not currently registered in the 4G network, wherein the RR state comprises an idle state and a non-idle state; characterized in that the method further comprises: determining a first duration in which the terminal equipment is in the non-idle state but not registered in the 4G network, when the RR state is the non-idle state; and releasing the RR state to the idle state to enable the terminal equipment to re-select to connect to the 4G network, when the first duration exceeds a first time threshold. determining a first duration in which the terminal equipment is in the non-idle state but not registered in the 4G network, when the RR state is the non-idle state; and releasing the RR state to the idle state to enable the terminal equipment to re-select to connect to the 4G network, when the first duration exceeds a first time threshold.
A method for separating a transition metal from a waste positive electrode material, the method comprising: step 1 of preparing a waste positive electrode material represented by Formula 1 below; step 2 of heat treating the waste positive electrode material in an inert gas atmosphere or an oxygen atmosphere to phase separate the waste positive electrode material into a lithium oxide and a metal oxide; step 3 of cooling an obtained product of step 2 to room temperature in an inert atmosphere; and step 4 of mixing a cooled product cooled to room temperature in the step 3 with distilled water, and then filtering the mixture to leach a transition metal: [Formula 1] Li 1+a Ni 1-x M x O 2 , wherein in Formula 1 above, M is one or more selected from the group consisting of Co, Mn, and Al, and 0 ≤ a ≤ 0 .3 , and 0 ≤ x ≤ 0 .5; characterized in that in the step 2, the heat treating is performed at 900°C to 1,000°C in an oxygen atmosphere; or the heat treating is performed at 800°C to 950°C in an inert gas atmosphere. step 1 of preparing a waste positive electrode material represented by Formula 1 below; step 2 of heat treating the waste positive electrode material in an inert gas atmosphere or an oxygen atmosphere to phase separate the waste positive electrode material into a lithium oxide and a metal oxide; step 3 of cooling an obtained product of step 2 to room temperature in an inert atmosphere; and step 4 of mixing a cooled product cooled to room temperature in the step 3 with distilled water, and then filtering the mixture to leach a transition metal: [Formula 1] Li 1+a Ni 1-x M x O 2 , wherein in Formula 1 above, M is one or more selected from the group consisting of Co, Mn, and Al, and 0 ≤ a ≤ 0 .3 , and 0 ≤ x ≤ 0 .5; characterized in that in the step 2, the heat treating is performed at 900°C to 1,000°C in an oxygen atmosphere; or the heat treating is performed at 800°C to 950°C in an inert gas atmosphere.
Method for setting a vehicle deceleration (a1, a2, a3) of a vehicle driving in a platoon , wherein the vehicle is a guide vehicle (X) or a following vehicle (Y) traveling indirectly or directly behind, wherein, if a platooning mode (P) is present, - between the vehicle as a guide vehicle (X) and the following vehicle (Y) traveling directly behind, or - between the vehicle as a following vehicle (Y) and the guide vehicle (X) traveling directly ahead and at least one further following vehicle (Y) traveling directly behind the vehicle , a predetermined target distance (D12Soll, D23Soll) is set, wherein the vehicle deceleration (a1, a2, a3) of the vehicle as a guide vehicle (X) or as a following vehicle (Y) is limited to a limit deceleration (aG, aM) when a limiting criterion (K) is met, characterized in that if the maximum deceleration (aMax1, aMax2, aMax3) of at least one vehicle is not known, the limit deceleration (aG) is defined depending on a legally predetermined minimum deceleration (aM). - between the vehicle as a guide vehicle (X) and the following vehicle (Y) traveling directly behind, or - between the vehicle as a following vehicle (Y) and the guide vehicle (X) traveling directly ahead and at least one further following vehicle (Y) traveling directly behind the vehicle , a predetermined target distance (D12Soll, D23Soll) is set, wherein the vehicle deceleration (a1, a2, a3) of the vehicle as a guide vehicle (X) or as a following vehicle (Y) is limited to a limit deceleration (aG, aM) when a limiting criterion (K) is met, characterized in that if the maximum deceleration (aMax1, aMax2, aMax3) of at least one vehicle is not known, the limit deceleration (aG) is defined depending on a legally predetermined minimum deceleration (aM).
A cooperation system between a wheelchair and exercisers, comprising: • at least a magnetic hooking plate , fastened with respect to the exerciser with a predetermined spatial correlation; • extensible magnetic means aboard a wheelchair , extending therefrom to said at least a hooking plate , by determining a mutual positioning between wheelchair and exerciser , suitable to perform exercises; and • means for driving said extensible magnetic means aboard a wheelchair , which can be actuated by the wheelchair's user in seated position from an unlocking position to a locking position and vice versa. • at least a magnetic hooking plate , fastened with respect to the exerciser with a predetermined spatial correlation; • extensible magnetic means aboard a wheelchair , extending therefrom to said at least a hooking plate , by determining a mutual positioning between wheelchair and exerciser , suitable to perform exercises; and • means for driving said extensible magnetic means aboard a wheelchair , which can be actuated by the wheelchair's user in seated position from an unlocking position to a locking position and vice versa.
A method for regulating the activity of a core running at a given clock rate of an initial clock, the method comprising: - monitoring (S100) a value of a voltage of the core, - determining whether the monitored value reaches a trigger value; - when the monitored value reaches the trigger value (S120): o modifying, by a clock-gating module, the clock rate of the core (S130) by decreasing the ratio of active cycles of a clock sent to the core to total cycles of the initial clock by suppressing active cycles of the initial clock; and o running the core at the clock rate modified (S140) by decreasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock; - when the monitored value reaches a second time the trigger value (S170): o modifying, by the clock-gating module, the clock rate of the core (S180) by increasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock; and o running the core at the clock rate (S190) modified by increasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock. - monitoring (S100) a value of a voltage of the core, - determining whether the monitored value reaches a trigger value; - when the monitored value reaches the trigger value (S120): o modifying, by a clock-gating module, the clock rate of the core (S130) by decreasing the ratio of active cycles of a clock sent to the core to total cycles of the initial clock by suppressing active cycles of the initial clock; and o running the core at the clock rate modified (S140) by decreasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock; o modifying, by a clock-gating module, the clock rate of the core (S130) by decreasing the ratio of active cycles of a clock sent to the core to total cycles of the initial clock by suppressing active cycles of the initial clock; and o running the core at the clock rate modified (S140) by decreasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock; - when the monitored value reaches a second time the trigger value (S170): o modifying, by the clock-gating module, the clock rate of the core (S180) by increasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock; and o running the core at the clock rate (S190) modified by increasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock. o modifying, by the clock-gating module, the clock rate of the core (S180) by increasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock; and o running the core at the clock rate (S190) modified by increasing the ratio of active cycles of the clock sent to the core to total cycles of the initial clock.
Scapula harvester for operating on a poultry carcass , comprising instruments for breaking tissue connections and for harvesting scapula bones that connect to the poultry carcass, wherein the instruments comprise back knives and release hooks that are arranged to operate concertedly, characterized in that during use the back knives cut along and eventually assume a stationary position adjacent to the poultry spine for fixing the poultry carcass in position with the scapula bones directed upwards, and that the release hooks are arranged to execute during use a down and up movement while the back knives are stationary, wherein during the up movement the release hooks detach the scapula bones from the poultry carcass so as to harvest the scapula bones .
A pharmaceutical composition for use in the treatment of cancer, comprising, as an active ingredient, -2-[ -3-amino-2-hydroxy-4-phenylbutanoylamino]-4-methylpentanoic acid or a pharmacologically acceptable salt thereof, wherein the pharmaceutical composition is for use by treating or putting an elderly or a terminal cancer patient into remission, wherein the patient is 70 years of age or older and has a neutrophil count to lymphocyte count ratio of 4 or more in peripheral blood, and wherein the active ingredient is comprised at an amount of 10 mg administered once a day to the patient.
A variant of a 3-hydroxyisovalerate (HIV) synthase showing an at least 10% higher activity in converting acetone and a compound which provides an activated acetyl group characterized by the following formula (I): into 3-hydroxyisovalerate than that of the enzyme having the amino acid sequence shown in SEQ ID NO: 1, wherein X is selected from the group consisting of S-CH2-CH2-NH-CO-CH2-CH2-NH-CO-CH(OH)-C(CH3)2-CH2-O-PO2H-O-PO2H-C10H13N5O7P (coenzyme A), S-CH2-CH2-NH-CO-CH2-CH2-NH-CO-CH(OH)-C(CH3)2-CH2-O-PO2H-polypeptide (acyl-carrier protein), S-CH2-CH2-NH-CO-CH2-CH2-NH-CO-CH(OH)-C(CH3)2-CH2-OH (pantetheine), S-CH 2 -CH 2 -NH-CO-CH 3 (N-acetyl-cysteamine), S-CH 3 (methane thiol), S-CH2-CH(NH2)-CO2H (cysteine), S-CH2-CH2-CH(NH2)-CO2H (homocysteine), S-CH2-CH(NH-C5H8NO3)-CO-NH-CH2-CO2H (glutathione), S-CH 2 -CH 2 -SO 3 H (coenzyme M) and OH (acetic acid), wherein the HIV synthase variant is characterized in that : (a) it has an amino acid sequence having at least 75% sequence identity to SEQ ID NO:1; and (b) it shows amino acid substitutions at positions 22, 201 and 462 in the amino acid sequence shown in SEQ ID NO:1 or at a position corresponding to any of these positions. (a) it has an amino acid sequence having at least 75% sequence identity to SEQ ID NO:1; and (b) it shows amino acid substitutions at positions 22, 201 and 462 in the amino acid sequence shown in SEQ ID NO:1 or at a position corresponding to any of these positions.
An optical laminate , comprising, in this order: a polarizer ; a light-diffusing pressure-sensitive adhesive layer ; a matte layer ; and a louver layer , wherein the louver layer includes a louver film that has light-transmitting portions each having a trapezoidal section arrayed along the louver film plane, and light-absorbing portions each having a trapezoidal section arrayed between the light-transmitting portions, and wherein a haze value H of the light-diffusing pressure-sensitive adhesive layer and a bias angle B of the louver layer satisfy relationships represented by the following expressions to : 2 ≤ B ≤ 6 20 ≤ H ≤ 60 B × H ≥ 40 where the bias angle is expressed in degrees ° and means a tilt angle of each of the trapezoidal sections with respect to a normal direction of the louver layer, and the haze value is expressed in % and is determined in accordance with JIS K 7136. a polarizer ; a light-diffusing pressure-sensitive adhesive layer ; a matte layer ; and a louver layer , wherein the louver layer includes a louver film that has light-transmitting portions each having a trapezoidal section arrayed along the louver film plane, and light-absorbing portions each having a trapezoidal section arrayed between the light-transmitting portions, and wherein a haze value H of the light-diffusing pressure-sensitive adhesive layer and a bias angle B of the louver layer satisfy relationships represented by the following expressions to : 2 ≤ B ≤ 6 20 ≤ H ≤ 60 B × H ≥ 40 where the bias angle is expressed in degrees ° and means a tilt angle of each of the trapezoidal sections with respect to a normal direction of the louver layer, and the haze value is expressed in % and is determined in accordance with JIS K 7136.
A method for wireless communication, comprising: transmitting (1205; 1310) a synchronization signal block, SSB, to a user equipment, UE, using a first antenna port configuration; and transmitting (1210; 1315) a paging signal to the UE using a second antenna port configuration, wherein the SSB and a demodulation reference signal, DMRS, of the paging signal are quasi co-located with respect to receive beamforming at the UE , and wherein the first antenna port configuration comprises at least one antenna port that is quasi co-located with respect to at least one antenna port of the second antenna port configuration. transmitting (1205; 1310) a synchronization signal block, SSB, to a user equipment, UE, using a first antenna port configuration; and transmitting (1210; 1315) a paging signal to the UE using a second antenna port configuration, wherein the SSB and a demodulation reference signal, DMRS, of the paging signal are quasi co-located with respect to receive beamforming at the UE , and wherein the first antenna port configuration comprises at least one antenna port that is quasi co-located with respect to at least one antenna port of the second antenna port configuration.
A door strike which prevents the opening of an associated door when the door strike has been heated to an elevated temperature of at least 538°C, wherein the door strike includes a thermally responsive element which retards the normal operation of the door strike when it is at an elevated temperature, characterized in that the thermally responsive element is a U-shaped strip of a thermally responsive material having a first leg affixed to a part of a frame of the door strike, and also having a second leg connected by an intermediate bow part with the first leg, such that when the thermally responsive element is at room temperature the thermally responsive element assumes a first configuration wherein the first leg and the second leg are substantially parallel and the thermally responsive element provides no impedance with the function of any moveable element of the door strike which would prevent or retard the door associated with the door strike from opening, but when the thermally responsive element is at the elevated temperature, the thermally responsive element changes from its first configuration to a second configuration wherein the second leg impedes the function of at least one moveable element of the door strike which prevents or retards the door associated with the door strike from opening it its usual manner.
A merchandise display system comprising: a tray having a tray surface for receiving products loaded in the tray , and a retainer mounted to the tray for limiting movement of products loaded in the tray ; the retainer comprising a retainer wall for retaining products in a first position, and the retainer further comprising a retainer projection configured to help retain existing products on the tray in a second position and configured to serve as a guide for products being loaded onto the tray surface ; the retainer projection comprises a ramp for guiding the products into the tray when the retainer is in the second position and the retainer projection further comprises a flat surface adjacent to the ramp which helps prevent products loaded onto the tray from advancing off of the tray when the retainer is in the second position; characterised in that the ramp and the flat surface together form a groove and in that the groove is configured to receive a front portion of the tray therein to maintain the retainer in the second position. a tray having a tray surface for receiving products loaded in the tray , and a retainer mounted to the tray for limiting movement of products loaded in the tray ; the retainer comprising a retainer wall for retaining products in a first position, and the retainer further comprising a retainer projection configured to help retain existing products on the tray in a second position and configured to serve as a guide for products being loaded onto the tray surface ; the retainer projection comprises a ramp for guiding the products into the tray when the retainer is in the second position and the retainer projection further comprises a flat surface adjacent to the ramp which helps prevent products loaded onto the tray from advancing off of the tray when the retainer is in the second position; characterised in that the ramp and the flat surface together form a groove and in that the groove is configured to receive a front portion of the tray therein to maintain the retainer in the second position.
A method for drape forming a laminated composite charge , the method comprising: placing the laminated composite charge on a forming tool ; and redirecting forming forces (FF) applied to the laminated composite charge during drape forming to counteract wrinkle forming movement between plies of the laminated composite charge ; wherein the forming forces (FF) are redirected by applying tension forces (T) to one or more tension members interleaved into a peripheral area (400A1, 400A2) of the laminated composite charge ; and wherein the tension forces (T) are generated by the one or more tension members interleaved in the laminated composite charge where a free end of the one or more tension members is constrained at a fixed location under compressive loading (C) by a drape forming diaphragm and an interleaved end of the one or more tension members pulls on the laminated composite charge under the compressive loading (C) by the drape forming diaphragm . placing the laminated composite charge on a forming tool ; and redirecting forming forces (FF) applied to the laminated composite charge during drape forming to counteract wrinkle forming movement between plies of the laminated composite charge ; wherein the forming forces (FF) are redirected by applying tension forces (T) to one or more tension members interleaved into a peripheral area (400A1, 400A2) of the laminated composite charge ; and wherein the tension forces (T) are generated by the one or more tension members interleaved in the laminated composite charge where a free end of the one or more tension members is constrained at a fixed location under compressive loading (C) by a drape forming diaphragm and an interleaved end of the one or more tension members pulls on the laminated composite charge under the compressive loading (C) by the drape forming diaphragm .
An electrode assembly , characterized in that the electrode assembly comprises: a first electrode plate and a second electrode plate that are of opposite polarities, wherein an active material region of the first electrode plate and an active material region of the second electrode plate are wound to form a body portion , a non-active material region of the first electrode plate or a non-active material region of the second electrode plate is wound to form a tab , and the tab comprises a bend portion bent against the body portion ; and a guide piece , wherein at least a part of the guide piece is located in the bend portion , and the guide piece is configured to guide an electrolytic solution into an interior of the body portion .