mhurhangee/patent-ind-claim-en huggingface dataset:
A luggage storage system for commercial aircraft , the system comprising: a. a bin housing comprising: i. an aircraft frame attachment device , ii. a first bin end-wall on one longitudinal end of the bin housing , iii. a second end-wall on the longitudinally opposite end of the bin housing from the first bin end-wall , iv. an end-wall pivot on facing sides of the first and the second end-wall , v. a bin divider substantially parallel to each end-wall, vi. wherein the distance between the first bin end-wall and the bin divider is substantially less than the distance between the second bin end-wall and the bin divider , vii. a divider pivot on both longitudinal sides of the bin divider ; b. a first luggage bucket extending from the first bin end-wall to the bin divider the first luggage bucket attached to corresponding end-wall pivot and corresponding divider pivot ; and c. a second luggage bucket extending from the second bin end-wall to the bin divider , the second luggage bucket attached to corresponding end-wall pivot and corresponding divider pivot . a. a bin housing comprising: i. an aircraft frame attachment device , ii. a first bin end-wall on one longitudinal end of the bin housing , iii. a second end-wall on the longitudinally opposite end of the bin housing from the first bin end-wall , iv. an end-wall pivot on facing sides of the first and the second end-wall , v. a bin divider substantially parallel to each end-wall, vi. wherein the distance between the first bin end-wall and the bin divider is substantially less than the distance between the second bin end-wall and the bin divider , vii. a divider pivot on both longitudinal sides of the bin divider ; i. an aircraft frame attachment device , ii. a first bin end-wall on one longitudinal end of the bin housing , iii. a second end-wall on the longitudinally opposite end of the bin housing from the first bin end-wall , iv. an end-wall pivot on facing sides of the first and the second end-wall , v. a bin divider substantially parallel to each end-wall, vi. wherein the distance between the first bin end-wall and the bin divider is substantially less than the distance between the second bin end-wall and the bin divider , vii. a divider pivot on both longitudinal sides of the bin divider ; b. a first luggage bucket extending from the first bin end-wall to the bin divider the first luggage bucket attached to corresponding end-wall pivot and corresponding divider pivot ; and c. a second luggage bucket extending from the second bin end-wall to the bin divider , the second luggage bucket attached to corresponding end-wall pivot and corresponding divider pivot .
A method executed by a service and resource inventory system for allocating communication resources in a communication network that comprises a number of different devices and utilizes different technologies, wherein the method is arranged to support different network technologies and different technology templates, and the method comprising collecting information of the number of devices of the communication network wherein Network Management Systems, Element Management Systems, Network Elements, network function virtualization resources, and inventories of the network are utilized; transforming the collected information from their formats to a common format determining current resources of the communication network and current use of the resources utilizing the collected information in the common format, and calculating a prediction for the resource allocation in the future, investigating alternative ways to use the resources instead of the current use by an investigator component , and suggesting by an investigator component to use at least one alternative way in case the at least one alternative way is more efficient than the current use and allocating or reallocating the resources based on the at least one alternative way in the communication network. collecting information of the number of devices of the communication network wherein Network Management Systems, Element Management Systems, Network Elements, network function virtualization resources, and inventories of the network are utilized; transforming the collected information from their formats to a common format determining current resources of the communication network and current use of the resources utilizing the collected information in the common format, and calculating a prediction for the resource allocation in the future, investigating alternative ways to use the resources instead of the current use by an investigator component , and suggesting by an investigator component to use at least one alternative way in case the at least one alternative way is more efficient than the current use and allocating or reallocating the resources based on the at least one alternative way in the communication network.
Method for detecting a malfunction of an acoustic sensor (CA) coupled to an electrochemical generator (GE) comprising: - a first step of applying an electrical signal (SE) at a given frequency and a given amplitude, termed the signal frequency and signal amplitude the electrical signal (SE) is superimposed on the electrical signals corresponding to the normal operation of the electrochemical generator (GE); - a second step of measuring, by the acoustic sensor (CA), an acoustic signal (SA) emitted by the electrochemical generator (GE) in response to the application of the electrical signal (SE); - when the amplitude of the acoustic signal (SA) is below a predetermined threshold value, a third step of detecting a malfunction of the acoustic sensor (CA). - a first step of applying an electrical signal (SE) at a given frequency and a given amplitude, termed the signal frequency and signal amplitude the electrical signal (SE) is superimposed on the electrical signals corresponding to the normal operation of the electrochemical generator (GE); - a second step of measuring, by the acoustic sensor (CA), an acoustic signal (SA) emitted by the electrochemical generator (GE) in response to the application of the electrical signal (SE); - when the amplitude of the acoustic signal (SA) is below a predetermined threshold value, a third step of detecting a malfunction of the acoustic sensor (CA).
An actuator unit configured to be mounted in an airplane , the actuator unit comprising: an actuator having a piston , a controller attached to the actuator and configured to control a position of the piston , wherein the controller and the actuator form a single unit, the controller comprises an actuator monitoring circuit configured to monitor the actuator , and the actuator monitoring circuit comprises a total moving distance calculator configured to calculate a total moving distance of the piston up to the present time after replacement of the actuator , and a first notification signal transmitter configured to output, when the total moving distance of the piston exceeds a first threshold which indicates replacement mileage of the actuator , a notification signal to notify excess over the first threshold. an actuator having a piston , a controller attached to the actuator and configured to control a position of the piston , wherein the controller and the actuator form a single unit, the controller comprises an actuator monitoring circuit configured to monitor the actuator , and the actuator monitoring circuit comprises a total moving distance calculator configured to calculate a total moving distance of the piston up to the present time after replacement of the actuator , and a first notification signal transmitter configured to output, when the total moving distance of the piston exceeds a first threshold which indicates replacement mileage of the actuator , a notification signal to notify excess over the first threshold.
A high-pressure pump for raising the pressure level of a fluid, particularly a fuel, the high-pressure pump comprising: a movable piston for compressing a pump chamber , an inlet valve for letting the fluid into the pump chamber , a cooling device for cooling the piston with the aid of fluid flowing upstream of the inlet valve , and a return throttle for carrying away a fluid downstream of the cooling device characterised by a volumetric flow control valve , which is disposed upstream of the cooling device and influences a volumetric flow of the fluid through the cooling device towards the inlet valve , a bypass throttle for bypassing the volumetric flow control valve , wherein the bypass throttle and the return throttle are each configured to permit the passage of a specified volumetric flow of fluid, and the specified volumetric flow of the bypass throttle is less than the specified volumetric flow of the return throttle . a movable piston for compressing a pump chamber , an inlet valve for letting the fluid into the pump chamber , a cooling device for cooling the piston with the aid of fluid flowing upstream of the inlet valve , and a return throttle for carrying away a fluid downstream of the cooling device characterised by a volumetric flow control valve , which is disposed upstream of the cooling device and influences a volumetric flow of the fluid through the cooling device towards the inlet valve , a bypass throttle for bypassing the volumetric flow control valve , wherein the bypass throttle and the return throttle are each configured to permit the passage of a specified volumetric flow of fluid, and the specified volumetric flow of the bypass throttle is less than the specified volumetric flow of the return throttle .
A power consumption device, comprising: a passenger compartment ; and a box for accommodating a battery cell , the box comprising a thermal management component ; wherein the thermal management component is configured to accommodate fluid to adjust a temperature for the battery cell and the passenger compartment ; wherein the thermal management component is configured for a heat conducting connection to the battery cell , and the thermal management component is in a heat conducting connection to a compartment wall of the passenger compartment or is formed as a part of the compartment wall so as to simultaneously adjust a temperature for the battery cell and the passenger compartment ; characterized in that the box further comprises a box body with an opening, the thermal management component is configured to cover the opening, the box body and the thermal management component enclose a closing chamber, and the closing chamber is configured to accommodate the battery cell . a passenger compartment ; and a box for accommodating a battery cell , the box comprising a thermal management component ; wherein the thermal management component is configured to accommodate fluid to adjust a temperature for the battery cell and the passenger compartment ; wherein the thermal management component is configured for a heat conducting connection to the battery cell , and the thermal management component is in a heat conducting connection to a compartment wall of the passenger compartment or is formed as a part of the compartment wall so as to simultaneously adjust a temperature for the battery cell and the passenger compartment ; characterized in that the box further comprises a box body with an opening, the thermal management component is configured to cover the opening, the box body and the thermal management component enclose a closing chamber, and the closing chamber is configured to accommodate the battery cell .
Heating, ventilation and/or air-conditioning device for a motor vehicle, comprising: - a flow channel for a main air stream (F1), - a first evaporator located in said flow channel, said evaporator allowing condensates from said main airstream (F1) to flow under gravity upon contact with said evaporator , - a path for bypassing the evaporator that is taken by a secondary air stream (F2), - means for managing the condensates located in the path for bypassing the evaporator , said means for managing the condensates comprise a bowl for collecting the condensates , said bowl having an upper section which is larger than the lower section of the evaporator , the bowl being designed in a leak tight material, on the one hand so that there is no leakage of the condensates into the bypass path , and on the other hand so that there is no infiltration of air into the bowl , characterized in that , said bowl being in the form of a W with two planar interior lateral walls having an inclination and two planar outer lateral walls not having an inclination and extending two lateral faces of the evaporator , the inner lateral walls starting at the centre of the bowl and each being oriented towards an outer lateral wall two lateral evacuation ducts being located at the two bottom points of the W. - a flow channel for a main air stream (F1), - a first evaporator located in said flow channel, said evaporator allowing condensates from said main airstream (F1) to flow under gravity upon contact with said evaporator , - a path for bypassing the evaporator that is taken by a secondary air stream (F2), - means for managing the condensates located in the path for bypassing the evaporator , said means for managing the condensates comprise a bowl for collecting the condensates , said bowl having an upper section which is larger than the lower section of the evaporator , the bowl being designed in a leak tight material, on the one hand so that there is no leakage of the condensates into the bypass path , and on the other hand so that there is no infiltration of air into the bowl , characterized in that , said bowl being in the form of a W with two planar interior lateral walls having an inclination and two planar outer lateral walls not having an inclination and extending two lateral faces of the evaporator , the inner lateral walls starting at the centre of the bowl and each being oriented towards an outer lateral wall two lateral evacuation ducts being located at the two bottom points of the W.
A method for wireless communications by a wireless device, comprising: receiving a command from a first cell that the wireless device is permitted to establish an independent connection with another cell; receiving selection parameters from the first cell; autonomously, without the involvement of the first cell, identifying and selecting a second cell based at least in part on the selection parameters received from the first cell, the first cell being associated with a first base station and the second cell being associated with a second base station, and the first and second cells being in communication with each other; receiving a cell load indication from the second cell; determining whether an amount of uplink data in a buffer is above a threshold value; and establishing an independent connection with the second cell when the amount of uplink data in the buffer is above the threshold value and selecting the second cell based at least in part on the cell load indication received from the second cell; and communicating with the first and second cells concurrently. receiving a command from a first cell that the wireless device is permitted to establish an independent connection with another cell; receiving selection parameters from the first cell; autonomously, without the involvement of the first cell, identifying and selecting a second cell based at least in part on the selection parameters received from the first cell, the first cell being associated with a first base station and the second cell being associated with a second base station, and the first and second cells being in communication with each other; receiving a cell load indication from the second cell; determining whether an amount of uplink data in a buffer is above a threshold value; and establishing an independent connection with the second cell when the amount of uplink data in the buffer is above the threshold value and selecting the second cell based at least in part on the cell load indication received from the second cell; and communicating with the first and second cells concurrently.
A switch unit comprising: a case that comprises an opening and a switch ; two terminals (4a and 4b) that partially project to an outside of the case from the opening ; a gasket configured to seal the opening , the gasket comprising two through-holes (8a and 8b) through which the terminals (4a and 4b) extend; a base member ; and a pressing member that is arranged between the terminals (4a and 4b), wherein the gasket is in close contact with the terminals (4a and 4b) at the through-holes (8a and 8b), a region between the through-holes (8a and 8b) of the gasket is pressed while nipped between the pressing member and the base member , , and a surrounding region in the gasket is pressed while nipped between an inside surface of the case and the base member , characterised in that the case is constructed by a combination of two casing members (2a and 2b), and the opening is formed between the casing members (2a and 2b), wherein a terminal unit is an assembly comprising the two terminals (4a and 4b), the gasket , the base member , and the pressing member , the gasket has a plate-like shape, and the terminal unit is assembled in the casing members (2a and 2b) by sliding the terminal unit in parallel with a planar surface of the gasket . a case that comprises an opening and a switch ; two terminals (4a and 4b) that partially project to an outside of the case from the opening ; a gasket configured to seal the opening , the gasket comprising two through-holes (8a and 8b) through which the terminals (4a and 4b) extend; a base member ; and a pressing member that is arranged between the terminals (4a and 4b), wherein the gasket is in close contact with the terminals (4a and 4b) at the through-holes (8a and 8b), a region between the through-holes (8a and 8b) of the gasket is pressed while nipped between the pressing member and the base member , , and a surrounding region in the gasket is pressed while nipped between an inside surface of the case and the base member , characterised in that the case is constructed by a combination of two casing members (2a and 2b), and the opening is formed between the casing members (2a and 2b), wherein a terminal unit is an assembly comprising the two terminals (4a and 4b), the gasket , the base member , and the pressing member , the gasket has a plate-like shape, and the terminal unit is assembled in the casing members (2a and 2b) by sliding the terminal unit in parallel with a planar surface of the gasket .
A non-natural, modified α1-α2 domain of a natural NKG2D ligand molecule, wherein said modified α1-α2 domain comprises the amino acid sequence of SEQ ID NO.: 90, 91, 92, 93, 94, 95 or 96.
An aluminium-containing substrate with at least one superficially applied microporous layer of an aluminium phosphate zeolite (ALPO) and further layers, characterised in that the microporous layer of the aluminium phosphate zeolite (ALPO) is a primary layer, on which a microporous or mesoporous secondary material, which is different from the material of the primary layer, is located, wherein the microporous primary layer and the microporous or mesoporous secondary material have a difference with respect to the chemical type and to their pore system, wherein 1.) the microporous primary layer and the microporous secondary material a1) have a difference with respect to a gradually stepped porosity, wherein the microporous primary layer has a mean pore diameter of 0.2 to 1 nm and the microporous secondary material has a mean pore diameter of 0.4 to 1.5 nm, and b1) have a difference with respect to the chemical type, wherein the microporous secondary material is present in the form of zeolitic silicates or aluminosilicates or 2.) the microporous primary layer and the mesoporous secondary material a2) have a difference with respect to a gradually stepped porosity, wherein the microporous primary layer has a mean pore diameter of 0.2 to 1 nm and the mesoporous secondary material has a mean pore diameter of 2 to 5 nm, and b2) have a difference in the chemical type, wherein the mesoporous secondary material is present in the form of silicates. 1.) the microporous primary layer and the microporous secondary material a1) have a difference with respect to a gradually stepped porosity, wherein the microporous primary layer has a mean pore diameter of 0.2 to 1 nm and the microporous secondary material has a mean pore diameter of 0.4 to 1.5 nm, and b1) have a difference with respect to the chemical type, wherein the microporous secondary material is present in the form of zeolitic silicates or aluminosilicates or have a difference with respect to a gradually stepped porosity, wherein the microporous primary layer has a mean pore diameter of 0.2 to 1 nm and the microporous secondary material has a mean pore diameter of 0.4 to 1.5 nm, and b1) have a difference with respect to the chemical type, wherein the microporous secondary material is present in the form of zeolitic silicates or aluminosilicates or 2.) the microporous primary layer and the mesoporous secondary material a2) have a difference with respect to a gradually stepped porosity, wherein the microporous primary layer has a mean pore diameter of 0.2 to 1 nm and the mesoporous secondary material has a mean pore diameter of 2 to 5 nm, and b2) have a difference in the chemical type, wherein the mesoporous secondary material is present in the form of silicates. have a difference with respect to a gradually stepped porosity, wherein the microporous primary layer has a mean pore diameter of 0.2 to 1 nm and the mesoporous secondary material has a mean pore diameter of 2 to 5 nm, and b2) have a difference in the chemical type, wherein the mesoporous secondary material is present in the form of silicates.
A method of screening for therapeutic agents for histologically scirrhous anaplastic adenocarcinoma, comprising: (a) determining an ability of test substances to inhibit activation of a polypeptide having an amino acid mutation where Arg at position 5 is substituted by Trp or Gln in the amino acid sequence set forth in SEQ ID NO: 1, and selecting compound having the ability to inhibit activation of the polypeptide as candidates for the therapeutic agents for histologically scirrhous anaplastic adenocarcinoma; or (b) contacting a test substance with cells comprising said polypeptide, or with the cells comprising a vector comprising a polynucleotide encoding said polypeptide, and monitoring a property of the cells. (a) determining an ability of test substances to inhibit activation of a polypeptide having an amino acid mutation where Arg at position 5 is substituted by Trp or Gln in the amino acid sequence set forth in SEQ ID NO: 1, and selecting compound having the ability to inhibit activation of the polypeptide as candidates for the therapeutic agents for histologically scirrhous anaplastic adenocarcinoma; or (b) contacting a test substance with cells comprising said polypeptide, or with the cells comprising a vector comprising a polynucleotide encoding said polypeptide, and monitoring a property of the cells.