mhurhangee/ep-ind-claims huggingface dataset:
A sheet press molding method, wherein a process is provided for forming a molded product (30, 230) having a recess and protrusion pattern portion, to which a recess and protrusion pattern is transferred, by pressurizing a sheet-shaped material including a resin composition and 60 vol.% to 95 vol.% of a filler using a pair of molds, at least one of which has a predetermined recess and protrusion pattern composed of recessed portions (3a, 3b, 3c) and protruding portions (23a, 23b, 23c, 23d); a pair of molds provided with a dummy pattern composed of dummy recessed portions or dummy protruding portions (24a, 224a) which offset the difference between the total volume of protruding portions formed on the inside and the total volume of recessed portions (3a, 3b, 3c, 3d) disposed between the protruding portions (23a, 23b, 23c, 23d) and the side surfaces of the inside and between the protruding portions (23a, 23b, 23c, 23d) on the inside is used as a pair of the molds; characterized in that the total volume of the protruding portions (23a, 23b, 23c, 23d) is smaller than the total volume of the recessed portions (3a, 3b, 3c, 3d), and the dummy pattern is composed of dummy protruding portions (24a, 224a), and the volume of the protruding portions in the molded product (30, 230) is made to be the same as the volume of the recessed portions in the molded product (30, 230).
A method comprising: storing a first portion of information acquired from one or more sources in a first epoch, wherein said stored first portion of information includes pseudorange measurements and non-pseudorange measurements for at least one of said sources and is not sufficient to compute a navigation solution; obtaining in response to a changed signal environment and/or a changed view to said one or more sources a second portion of information subsequent to said first epoch, enabling use of said stored first portion of information in computing said navigation solution; the method characterized in that it further comprises disabling pseudo-range processing for at least one of said one or more sources during said first epoch; enabling said pseudo-range processing for said at least one of said one or more sources subsequent to said first epoch in response to a reduction of a multipath situation. storing a first portion of information acquired from one or more sources in a first epoch, wherein said stored first portion of information includes pseudorange measurements and non-pseudorange measurements for at least one of said sources and is not sufficient to compute a navigation solution; obtaining in response to a changed signal environment and/or a changed view to said one or more sources a second portion of information subsequent to said first epoch, enabling use of said stored first portion of information in computing said navigation solution; the method characterized in that it further comprises disabling pseudo-range processing for at least one of said one or more sources during said first epoch; enabling said pseudo-range processing for said at least one of said one or more sources subsequent to said first epoch in response to a reduction of a multipath situation.
Use of a coating composition comprising: a) a base composition comprising a polyetheraspartic ester having the formula below wherein each R represents a linear or branched C 1 -C 10 alkyl residue, such as a linear or branched C 1 -C 6 alkyl residue, preferably a methyl, ethyl, propyl or butyl residue; and wherein X is a polyether; and b) a curing agent; and c) one or more further components selected from fillers and pigments; for coating of a wind turbine blade. a) a base composition comprising a polyetheraspartic ester having the formula below wherein each R represents a linear or branched C 1 -C 10 alkyl residue, such as a linear or branched C 1 -C 6 alkyl residue, preferably a methyl, ethyl, propyl or butyl residue; and wherein X is a polyether; and wherein each R represents a linear or branched C 1 -C 10 alkyl residue, such as a linear or branched C 1 -C 6 alkyl residue, preferably a methyl, ethyl, propyl or butyl residue; and wherein X is a polyether; and b) a curing agent; and c) one or more further components selected from fillers and pigments;
A clip system for releasably retaining a mesh to an implant deployment device, comprising: at least one clip pair connectable to the implant deployment device and configured to releasably retain a surgical implant, wherein each clip pair includes two clips, each clip including a hook, a body, a hinge hole, and at least one spring member connected to each clip, wherein the spring member biases each clip from an open position towards a closed position, characterized in that the at least one spring member is integrally connected to each clip. at least one clip pair connectable to the implant deployment device and configured to releasably retain a surgical implant, wherein each clip pair includes two clips, each clip including a hook, a body, a hinge hole, and at least one spring member connected to each clip, wherein the spring member biases each clip from an open position towards a closed position, characterized in that the at least one spring member is integrally connected to each clip. a hook, a body, a hinge hole, and at least one spring member connected to each clip, wherein the spring member biases each clip from an open position towards a closed position, characterized in that the at least one spring member is integrally connected to each clip.
Method of operating a loudspeaker system with at least one loudspeaker wherein at least one membrane actual status variable of a membrane of the loudspeaker is recorded by a recording device (15, 16), wherein a membrane status of the membrane, comprising the membrane actual status variables membrane actual position (x ist), membrane actual speed (v ist) and membrane actual acceleration (a ist) is determined from at least one of the recorded membrane actual status variables (x ist, a ist) and is used directly to determine a control signal (U(t)) which is fed to a membrane which has an operative connection to a voice coil of the loudspeaker, characterised in that it is used as the control signal (U(t)) of a control voltage determined from the equation U t = α Δ t a soll t − a ist t + βa ist t + γv ist t + δx ist t where the following applies α = mL Bl, β = mL Bl R L + ω 0 Q, γ = mL Bl Rω 0 QL + ω 0 2 + Bl 2 mL as well as mL Bl Rω 0 2 L, where x ist is the membrane actual position, U(t) is the voltage applied on the loudspeaker, m the mass of the membrane, L the inductivity of the voice coil, R the resistance of the loudspeaker, ω 0 the inherent frequency of the loudspeaker, Q the quality of the loudspeaker, BI the conversion ratio of power to force, Δt a time interval, a soll the membrane nominal acceleration, a ist the membrane actual acceleration, v ist the membrane actual speed, x ist the membrane position and t the time.
A method for testing a vehicle or a component of a vehicle, wherein the real vehicle drives on a real test track, and a test control unit generates or plays back a virtual world which contains both a virtual vehicle state and a virtual vehicle environment, characterized in that the test control unit manipulates a number of sensors and/or actuators of the real vehicle according to the requirements of the virtual world and, at the same time, actuates a driving state actuator according to the requirements of the virtual world, and that the driving state actuator generates the instantaneous vehicle state and the instantaneous vehicle environment of the virtual world by introducing additional forces or moments into the real vehicle so that the real vehicle experiences the vehicle state and the vehicle environment from the virtual world on the real test track.
An integrated circuit assembly for generating a machine-specific identification key, the integrated circuit assembly comprising one or more sub-components configured to transmit signals, monitoring circuitry configured to monitor said transmitted signals and configured to generate signal information based on said monitored signals, registers configured to store said generated signal information, and manipulation means configured to transform the generated signal information into the machine-specific identification key; the integrated circuit assembly comprising: the sub-components comprising an instruction cache, a data cache, an instruction bus assembly and a data bus assembly; the monitoring circuitry being incorporated in debug circuitry of the integrated circuit assembly, the monitoring circuitry comprising one or more counters that are configured to count events monitored on said monitored signals, wherein counting events comprises logging occurrences of values of said monitored signals using the one or more counters, and wherein the counter values are selectively logged in said registers; wherein the transforming the generated signal information into the machine-specific identification key comprises characterising the monitored signals by creating approximations to the statistical distributions of the occurrences of values as logged in said registers; and wherein at least one of the monitored signals is selected from the list of: an instruction hit signal from the instruction cache, a data hit signal from the data cache, a data address part from the data bus assembly, a data value part from the data bus assembly, an instruction address part from the instruction bus assembly. the sub-components comprising an instruction cache, a data cache, an instruction bus assembly and a data bus assembly; the monitoring circuitry being incorporated in debug circuitry of the integrated circuit assembly, the monitoring circuitry comprising one or more counters that are configured to count events monitored on said monitored signals, wherein counting events comprises logging occurrences of values of said monitored signals using the one or more counters, and wherein the counter values are selectively logged in said registers; wherein the transforming the generated signal information into the machine-specific identification key comprises characterising the monitored signals by creating approximations to the statistical distributions of the occurrences of values as logged in said registers; and wherein at least one of the monitored signals is selected from the list of: an instruction hit signal from the instruction cache, a data hit signal from the data cache, a data address part from the data bus assembly, a data value part from the data bus assembly, an instruction address part from the instruction bus assembly.
System for dynamometer testing of motor vehicles, including a cooling device (20,30; 20a,20b; 20a',20b',20c') for a braking device and/or a power-generating means, and having power-absorbing means configured to absorb a power applied thereto by power-generating means, the cooling device (20,30; 20a,20b; 20a', 20b', 20c') including a fan arrangement configured to produce an air stream, said air stream being intended to provide a cooling effect, characterised in that said fan arrangement includes two fans (21,22; 31,32; 23a,24a; 23b,24b), which are axially aligned, and that the cooling device including means configured to rotate the fans (21,22; 31,32; 23a,24a; 23b,24b) in opposite directions relative to each other.
A method for filling at least one shut down refrigeration circuit with a refrigerant mixture comprising at least one first refrigerant fluid (28, 29) and at least one inorganic refrigerant fluid, the first refrigerant fluid (28, 29) comprising at least one fluorinated hydrocarbon derivative (28, 29), characterized in that it comprises the following steps: - in situ preparation of the refrigerant mixture in a mixing device (31, 32), by providing the first refrigerant fluid (28, 29) in liquid phase, and adding the inorganic refrigerant fluid to the first refrigerant fluid (28, 29), so as to obtain a homogenous refrigerant mixture, and - filling the refrigeration circuit by injecting the refrigerant mixture prepared in the mixing device (31, 32), the step of preparation comprising a step for recirculating the refrigerant mixture during which the pressure and the temperature of said refrigerant mixture are regulated. - in situ preparation of the refrigerant mixture in a mixing device (31, 32), by providing the first refrigerant fluid (28, 29) in liquid phase, and adding the inorganic refrigerant fluid to the first refrigerant fluid (28, 29), so as to obtain a homogenous refrigerant mixture, and - filling the refrigeration circuit by injecting the refrigerant mixture prepared in the mixing device (31, 32),
A method by a user equipment (102, 602) in a radio access network (100, 600), the method comprising: receiving, from a base station (103, 104, 604), a first control message comprising information on a plurality of frequencies; based on detection of an in device co-existence, IDC, problem for a first frequency among the plurality of frequencies occurring, transmitting, to the base station (103, 104, 604), a second control message for providing a first IDC indication related to the first frequency; based on detection of the IDC problem for the first frequency among the plurality of frequencies no longer occurring, transmitting, to the base station (103, 104, 604), a third control message for providing a second IDC indication related to the first frequency; and based on detection of the IDC problem for a second frequency, different from the first frequency, among the plurality of frequencies occurring, transmitting, to the base station (103, 104, 604), a fourth control message for providing a third IDC indication related to the second frequency. receiving, from a base station (103, 104, 604), a first control message comprising information on a plurality of frequencies; based on detection of an in device co-existence, IDC, problem for a first frequency among the plurality of frequencies occurring, transmitting, to the base station (103, 104, 604), a second control message for providing a first IDC indication related to the first frequency; based on detection of the IDC problem for the first frequency among the plurality of frequencies no longer occurring, transmitting, to the base station (103, 104, 604), a third control message for providing a second IDC indication related to the first frequency; and based on detection of the IDC problem for a second frequency, different from the first frequency, among the plurality of frequencies occurring, transmitting, to the base station (103, 104, 604), a fourth control message for providing a third IDC indication related to the second frequency.
A method of supplying and purging a fuel cell, said method being implemented by means of a purging device comprising: - a supply duct for supplying a reaction gas to said fuel cell, - a purge duct for purging said reaction gas sent to said fuel cell, - a purge pump suitable to make said reaction gas circulate in said purge duct, - a shutdown duct for shutting down the gas from said fuel cell, connected to said purge duct, - a purge valve placed upstream of said purge duct and of said purge pump and downstream of said fuel cell, - an intermediate chamber connected to said purge duct, to said supply duct and to said shutdown duct and positioned downstream of said purge valve, - said purge pump being suitable to put said intermediate chamber in depression. said method comprising: - a supply step for supplying a reaction gas to said fuel cell, - a purging step for purging, at least in part, said reaction gas sent to said fuel cell through activation of said purge pump, - a depressurisation step for depressurising said intermediate chamber by means of said purge pump and of said purge valve, - a second purging step, in which said purge valve is open and the gases at least inside said fuel cell are expelled through said shutdown duct also due to said intermediate depressurised chamber. - a supply duct for supplying a reaction gas to said fuel cell, - a purge duct for purging said reaction gas sent to said fuel cell, - a purge pump suitable to make said reaction gas circulate in said purge duct, - a shutdown duct for shutting down the gas from said fuel cell, connected to said purge duct, - a purge valve placed upstream of said purge duct and of said purge pump and downstream of said fuel cell, - an intermediate chamber connected to said purge duct, to said supply duct and to said shutdown duct and positioned downstream of said purge valve, - said purge pump being suitable to put said intermediate chamber in depression. - a supply step for supplying a reaction gas to said fuel cell, - a purging step for purging, at least in part, said reaction gas sent to said fuel cell through activation of said purge pump, - a depressurisation step for depressurising said intermediate chamber by means of said purge pump and of said purge valve, - a second purging step, in which said purge valve is open and the gases at least inside said fuel cell are expelled through said shutdown duct also due to said intermediate depressurised chamber.
A method for manufacturing a composite stringer (1000, 1110), the method comprising: laying up a composite material (1002, 1102) and foam (1004, 1104) with a plurality of structural members (1006, 1106) within the foam onto a tool in the form of a hat stringer having an upper surface and two side walls, wherein the plurality of structural members extends from the upper surface and the side walls in at least two orientations (1008, 1010, 1108, 1110) perpendicular to each other to resist a number of loads; and curing the composite material, the foam in the form of the stringer, and the plurality of structural members to form the composite stringer. laying up a composite material (1002, 1102) and foam (1004, 1104) with a plurality of structural members (1006, 1106) within the foam onto a tool in the form of a hat stringer having an upper surface and two side walls, wherein the plurality of structural members extends from the upper surface and the side walls in at least two orientations (1008, 1010, 1108, 1110) perpendicular to each other to resist a number of loads; and curing the composite material, the foam in the form of the stringer, and the plurality of structural members to form the composite stringer.
A keying system for providing selective interconnection between one of a set of related receptacle sockets and one of a set of related connector plugs, each of the set of connector plugs terminating an optic fibre held in a ferrule, each of the set of connector plugs adapted for insertion into a matching one of the set of receptacle sockets, wherein the keying system comprises: a set of raised bosses, each of said bosses configured to one of a plurality of predefined boss keying geometries; and a set of cavities, wherein each of said cavities with the ferrule being disposed therein is configured to one of a plurality of predefined cavity keying geometries; wherein a unique one of said set of bosses is in each of the set of receptacle sockets and a unique one of said set of cavities is in a forward end of each of the set of connector plugs; wherein one of said predefined boss keying geometries matches one of said predefined cavity keying geometries; and wherein when said boss keying geometry matches said cavity keying geometry, said boss can be inserted into said cavity thereby interconnecting said one of said set of connector plugs with said one of said set of receptacle sockets. a set of raised bosses, each of said bosses configured to one of a plurality of predefined boss keying geometries; and a set of cavities, wherein each of said cavities with the ferrule being disposed therein is configured to one of a plurality of predefined cavity keying geometries; wherein a unique one of said set of bosses is in each of the set of receptacle sockets and a unique one of said set of cavities is in a forward end of each of the set of connector plugs; wherein one of said predefined boss keying geometries matches one of said predefined cavity keying geometries; and wherein when said boss keying geometry matches said cavity keying geometry, said boss can be inserted into said cavity thereby interconnecting said one of said set of connector plugs with said one of said set of receptacle sockets.
An arrangement for improving an accuracy of a pressure measurement made of a breathing gas including drops of water or humidity flowing along a flow channel, comprising: said flow channel, a pressure measuring device and at least one pressure measuring channel configured to transmit a pressure of the breathing gas flowing along said flow channel to the measuring device to make the pressure measurement, characterized in that said pressure measuring channel is equipped with a capillary material enabling capillary suctioning of water, said capillary material extending along said pressure measuring channel. said flow channel, a pressure measuring device and at least one pressure measuring channel configured to transmit a pressure of the breathing gas flowing along said flow channel to the measuring device to make the pressure measurement, characterized in that said pressure measuring channel is equipped with a capillary material enabling capillary suctioning of water, said capillary material extending along said pressure measuring channel.
An apparatus (260, 270) employed as a master communication device of a plurality of wireless communication devices (260, 270) that form a device-to-device group, the device-to-device group being formed by an apparatus of a base station in dependence on respective physical separations between the wireless communication devices and communication characteristics of the wireless communication devices, the method characterized by comprising: means for, when employed as a master device, receiving an allocation of communication resources from the apparatus for the base station for at least one device in said device-to-device group that facilitate direct device-to-device communications therebetween; and means for, when employed as a master device, dynamically allocating said allocation of communication resources within said device-to-device group by at least selecting a transmit/receive slot configuration to be followed by the device-to-device group. means for, when employed as a master device, receiving an allocation of communication resources from the apparatus for the base station for at least one device in said device-to-device group that facilitate direct device-to-device communications therebetween; and means for, when employed as a master device, dynamically allocating said allocation of communication resources within said device-to-device group by at least selecting a transmit/receive slot configuration to be followed by the device-to-device group.