mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a leaf spring (1, 1.1) of a vehicle suspension system, with which, from bar-shaped source material (7, 8), the at least one spring arm (5, 5.1, 5.2) adjoining a tensioning section (2, 2.1) is formed by a rolling process, wherein, before the process of rolling out the source material bar for the forming of the leaf spring (1, 1.1), an edge layer is removed from the source material bar by mechanical means, and wherein the rolling out of the at least one spring arm (5, 5.1, 5.2) is carried out in the direction from the tensioning section (2, 2.1) towards its other end in such a way that the cross-section surface area is reduced in at least one section of the spring arm (5, 5.1, 5.2), characterised in that, by means of the rolling process for forming the leaf spring, a source material bar (7, 8) with round cross-section geometry is rolled into a rectangular cross-section geometry in the tensioning section and in the at least one spring arm (5, 5.1, 5.2), and therefore, by means of the rolling process, the section of the source material bar (7, 8), provided for forming the tensioning section (2, 2.1) on the finished leaf spring (1, 1.1), is also shaped and thereby a rolling microstructure is also formed therein.
A magnetocaloric lattice element formed by fibres (105', 105") of magnetocaloric material, wherein - the fibres (105', 105") are arranged in lattice planes (134, 138), which are parallel to each other, each fibre (105', 105") having a respective mass amount of magnetocaloric material, - the fibres (105', 105") of any given lattice plane (134, 138) do not contact each other but the fibres of the given lattice plane each contact at least two respective other fibres of a next neighbouring lattice plane, and wherein - the magnetocaloric lattice element exhibits exactly one predominant mass-weighted direction of longitudinal fibre extension. - the fibres (105', 105") are arranged in lattice planes (134, 138), which are parallel to each other, each fibre (105', 105") having a respective mass amount of magnetocaloric material, - the fibres (105', 105") of any given lattice plane (134, 138) do not contact each other but the fibres of the given lattice plane each contact at least two respective other fibres of a next neighbouring lattice plane, and wherein - the magnetocaloric lattice element exhibits exactly one predominant mass-weighted direction of longitudinal fibre extension.
A jig assembly for laser welding, comprising: a jig body having a first penetration portion through which a laser for welding is capable of passing; a contact member connected to the jig body to contact a welding target, the contact member having a second penetration portion through which the laser passing through the first penetration portion is capable of passing toward the welding target; a tilting unit having a hinge structure to connect the jig body and the contact member to each other; and an elastic member interposed between the jig body and the contact member to give an elastic force for closely adhering the contact member to the welding target. a jig body having a first penetration portion through which a laser for welding is capable of passing; a contact member connected to the jig body to contact a welding target, the contact member having a second penetration portion through which the laser passing through the first penetration portion is capable of passing toward the welding target; a tilting unit having a hinge structure to connect the jig body and the contact member to each other; and an elastic member interposed between the jig body and the contact member to give an elastic force for closely adhering the contact member to the welding target.
A method which is executed by a mobile station for autonomous enhanced uplink transmission in which a scheduling grant from a network is not required, comprising: determining a virtual transmission time interval for a medium access control entity, which virtual transmission time interval defines a minimum time interval that is allowed between enhanced uplink transmissions; checking to determine whether the medium access control entity is transmitting data packets in a current air interface transmission time interval; and for the case where it is determined that the medium access control entity is not transmitting in the current air interface transmission time interval, transmitting a next data packet only after a period determined by the virtual transmission time interval is determined to have elapsed. determining a virtual transmission time interval for a medium access control entity, which virtual transmission time interval defines a minimum time interval that is allowed between enhanced uplink transmissions; checking to determine whether the medium access control entity is transmitting data packets in a current air interface transmission time interval; and for the case where it is determined that the medium access control entity is not transmitting in the current air interface transmission time interval, transmitting a next data packet only after a period determined by the virtual transmission time interval is determined to have elapsed.
A method of analyzing a subterranean formation comprising: transmitting a first signal from a transmitter to the formation; receiving a second signal from the formation at a receiver; wherein the second signal is a reflection of the first signal from the formation; generating a third signal, wherein the third signal is the second signal reversed in time; transmitting the third signal from the transmitter to the formation; receiving a fourth signal at the receiver; wherein the fourth signal is a reflection of the third signal from the formation; monitoring the fourth signal. transmitting a first signal from a transmitter to the formation; receiving a second signal from the formation at a receiver; wherein the second signal is a reflection of the first signal from the formation; generating a third signal, wherein the third signal is the second signal reversed in time; transmitting the third signal from the transmitter to the formation; receiving a fourth signal at the receiver; wherein the fourth signal is a reflection of the third signal from the formation; monitoring the fourth signal.
A fuel supply system for use with a power generating system, said fuel supply system comprising: a fuel heater coupled in flow communication with a fuel source, said fuel heater for heating fuel supplied from the fuel source; a first heating assembly coupled in flow communication with said fuel heater for heating a first flow of water channeled to said fuel heater; the first heating assembly comprising an auxiliary boiler assembly for increasing a temperature of the first flow of heated water channeled to said fuel heater; a heat recovery steam generator assembly coupled in flow communication with said fuel heater for channeling a second flow of heated water to said fuel heater; and a valve assembly coupled between said first heating assembly, said heat recovery steam generator assembly, and said fuel heater to enable a flow of heated water from said first heating assembly and said heat recovery steam generator assembly to be selectively channeled to said fuel heater. a fuel heater coupled in flow communication with a fuel source, said fuel heater for heating fuel supplied from the fuel source; a first heating assembly coupled in flow communication with said fuel heater for heating a first flow of water channeled to said fuel heater; the first heating assembly comprising an auxiliary boiler assembly for increasing a temperature of the first flow of heated water channeled to said fuel heater; a heat recovery steam generator assembly coupled in flow communication with said fuel heater for channeling a second flow of heated water to said fuel heater; and a valve assembly coupled between said first heating assembly, said heat recovery steam generator assembly, and said fuel heater to enable a flow of heated water from said first heating assembly and said heat recovery steam generator assembly to be selectively channeled to said fuel heater.
A high strength steel plate superior in stretch flange formability and fatigue characteristics characterized by comprising steel plate containing, by mass%, C: 0.03 to 0.20%, Si: 0.08 to 1.5%, Mn: 1.0 to 3.0%, P: 0.05% or less, S: 0.0005% or more, N: 0.0005 to 0.01%, acid soluble Al: 0.01% or less, acid soluble Ti: less than 0.008%, and a total of one or both of Ce or La: 0.0005 to 0.04%, and optionally one or more of any of V: 0.01 to 0.05%, Cr: 0.01 to 0.6%, Mo: 0.01 to 0.4%, and B: 0.0003 to 0.03%, and having a balance of iron and unavoidable impurities, and having a number ratio of 20% or less of stretched inclusions present in the steel plate having a circle equivalent diameter of 1 μm or more and a long axis/short axis of 5 or more and having inclusions comprised of an oxide or oxysulfide of one or both of Ce or La on which MnS is precipitated.
A polypeptide comprising the polypeptide of SEQ ID NO: 1 wherein the residue X at position 89 of SEQ ID NO: 1 is not a cysteine, or a functionally equivalent variant of said polypeptide having a degree of identity with respect to SEQ ID NO: 1 greater than 90% and having a threonine at the position corresponding to position 61 of SEQ ID NO: 1, an isoleucine at the position corresponding to position 68 of SEQ ID NO: 1, a glutamine at the position corresponding to position 74 of SEQ ID NO: 1 and an asparagine at the position corresponding to position 75 of SEQ ID NO: 1, and wherein the residue X at the position corresponding to position 89 of SEQ ID NO: 1 is not a cysteine, wherein said functionally equivalent variant preserves the tumor suppressor activity of the SEQ ID NO: 1 wherein the residue X at position 89 of SEQ ID NO: 1 is not a cysteine.
A prosthesis for controlling flow through a bodily lumen, the prosthesis comprising: a body having a proximal portion, a distal portion and a lumen extending therethrough; and a valve operably connected to the body, the valve having a proximal portion, a distal portion and a lumen extending through the valve, the valve lumen connected to the body lumen; the valve being configured to be closed in the absence of an antegrade pressure and a retrograde pressure, the retrograde pressure being greater than the antegrade pressure, the valve comprising a material portion operably connected to the valve, the material portion providing increased stiffness to the valve relative to the valve alone, wherein the material portion is configured to facilitate self-reversion of the valve to the closed configuration; characterised in that the material portion comprises a single arm and a coil. a body having a proximal portion, a distal portion and a lumen extending therethrough; and a valve operably connected to the body, the valve having a proximal portion, a distal portion and a lumen extending through the valve, the valve lumen connected to the body lumen; the valve being configured to be closed in the absence of an antegrade pressure and a retrograde pressure, the retrograde pressure being greater than the antegrade pressure, the valve comprising a material portion operably connected to the valve, the material portion providing increased stiffness to the valve relative to the valve alone, wherein the material portion is configured to facilitate self-reversion of the valve to the closed configuration; characterised in that the material portion comprises a single arm and a coil.
Inhaler component for the intermittent and inhalation- or puff-synchronous formation of a vapour-air mixture or/and condensation aerosol, comprising: a housing; a chamber arranged in the housing; an air admission opening for the supply of air from the surroundings into the chamber; an electric heating element for evaporating a portion of a liquid material, wherein the vapour formed mixes in the chamber with the air supplied through the air admission opening, and the vapour/air mixture or/and condensation aerosol is formed; and a wick with a capillary structure, which wick forms a composite with the heating element and, after an evaporation operation, resupplies the heating element automatically with the fresh liquid material, characterized in that the composite comprises a flat structure comprising an electrically non-conductive material which is arranged on a metal foil and has an open-pored structure. a housing; a chamber arranged in the housing; an air admission opening for the supply of air from the surroundings into the chamber; an electric heating element for evaporating a portion of a liquid material, wherein the vapour formed mixes in the chamber with the air supplied through the air admission opening, and the vapour/air mixture or/and condensation aerosol is formed; and a wick with a capillary structure, which wick forms a composite with the heating element and, after an evaporation operation, resupplies the heating element automatically with the fresh liquid material, characterized in that the composite comprises a flat structure comprising an electrically non-conductive material which is arranged on a metal foil and has an open-pored structure.
Inspection device for checking bottles or similar containers, comprising at least one first camera, which checks a defined region of the bottle or similar container, wherein the at least one camera is arranged on an optic channel, on which at least one second camera is arranged, wherein beam dividers are provided which are partially permeable for light beams and are partially reflective, and wherein the at least one second camera inspects the same defined region as at least the first camera, wherein at least one third and fourth camera (11, 13) are arranged on the optical channel, which together check a further defined region, and wherein the beam dividers are arranged in the interior of the optical channel in such a way that each laterally arranged camera (9, 11, 12, 13) is allocated in each case to a beam divider.
A process for the preparation of a compound of Formula I, wherein Formula I is: wherein: Ar is selected from C 6-30 aryl and C 6-30 heteroaryl, each of which is optionally substituted; R 1, R 2 and R 3 are, independently, selected from H and the group consisting of C 1-20 alkyl, C 2-20 alkenyl, C 1-20 alkoxy, C 1-20 alkoxyC 1-20 alkyl, C 1-20 alkoxyC 6-30 aryl, C 2-20 alkynyl, C 3-2 -cycloalkylC 6-30 aryl, C 6-30 aryloxy and C 5-20 heterocyclyl, any of which is optionally substituted; T 1 and T 2 are linked together and together are selected from the group consisting of: where T 3 is selected from the group consisting of H and -COOC 1-6 alkyl and T 4 and T 5 are, independently, selected from the group consisting of H, F, Cl, Br, I, OH and methyl (CH 3); and B is selected from the group consisting of a heterocyclic moiety derived from purine and a heterocyclic moiety derived from pyrimidine; comprising the steps of: (i) dissolving a compound of Formula II in a solvent selected from the group consisting of an ethereal solvent, acetonitrile and mixtures thereof and admixing the dissolved compound of Formula II with a base, wherein Formula II is: where T 1, T 2 and B have the same meanings set out with respect to Formula I; (ii) admixing the product of step (i) with a compound of Formula III, wherein Formula III is: where Ar, R 1, R 2 and R 3 have the same meanings set out with respect to Formula I, wherein step (ii) takes place in the presence of a catalyst comprising a metal salt wherein the metal salt is selected from the group consisting of metal salts of Cu, Fe, La and Yb. Ar is selected from C 6-30 aryl and C 6-30 heteroaryl, each of which is optionally substituted; R 1, R 2 and R 3 are, independently, selected from H and the group consisting of C 1-20 alkyl, C 2-20 alkenyl, C 1-20 alkoxy, C 1-20 alkoxyC 1-20 alkyl, C 1-20 alkoxyC 6-30 aryl, C 2-20 alkynyl, C 3-2 -cycloalkylC 6-30 aryl, C 6-30 aryloxy and C 5-20 heterocyclyl, any of which is optionally substituted; T 1 and T 2 are linked together and together are selected from the group consisting of: where T 3 is selected from the group consisting of H and -COOC 1-6 alkyl and T 4 and T 5 are, independently, selected from the group consisting of H, F, Cl, Br, I, OH and methyl (CH 3); and B is selected from the group consisting of a heterocyclic moiety derived from purine and a heterocyclic moiety derived from pyrimidine; (i) dissolving a compound of Formula II in a solvent selected from the group consisting of an ethereal solvent, acetonitrile and mixtures thereof and admixing the dissolved compound of Formula II with a base, wherein Formula II is: where T 1, T 2 and B have the same meanings set out with respect to Formula I; (ii) admixing the product of step (i) with a compound of Formula III, wherein Formula III is: where Ar, R 1, R 2 and R 3 have the same meanings set out with respect to Formula I,
A method for controlling lighting of an operating room with a portable pointer device (200, 310, 410), comprises indicating, by means of the pointer device, a light element, which is used for illuminating an object, to a control unit, wherein the pointer device is intended for a focusing of the lighting, wherein the control unit is intended for controlling a lighthead, wherein the lighthead comprises a plurality of light elements (432, 432a, 432b, 432c), and wherein the indicated light element belongs to the plurality of light elements, characterized in that the method further comprises determining, in the pointer device, its position for establishing a position data, and transmitting, by means of the pointer device, the position data to the control unit, which controls the lighthead in such a way that the lighthead produces lighting, which is co-directional with a body of the pointer device, for the object by at least one light element (432, 432a, 432b, 432c) by means of the position data and a location data, wherein the at least one light element belongs to the plurality of light elements and comprises the indicated light element and wherein said location data having been established by determining a location of the pointer device in relation to the lighthead.
An apparatus for determining a position of an oesophageal catheter inserted into an oesophagus of a patient, the apparatus being one of a ventilator connected to the patient to control ventilation function of the patient based on a myoelectric signal, or a device arranged to monitor the myoelectric signal during operation of the ventilator, said catheter comprising a number of electrode pairs arranged to pick up the myoelectrical signal, said apparatus comprising - a registering means arranged to register the myoelectric signals recorded by the electrode pairs of the oesophageal catheter, and - control means arranged to determine which electrode pair or pairs record the signal with the highest amplitude, characterised in that the apparatus further comprises - at least one electrode arranged to stimulate muscular activity of a diaphragm by applying a stimulus signal, and in that - the control means is arranged to cause the at least one electrode to stimulate the muscular activity of the diaphragm to provide a well-defined peak in the myoelectrical signal at a specific point in time, and, based on the signals registered by the registering means, determine if the electrode pair or pairs that record the highest amplitude at said specific point in time are located in or close to the middle of the catheter and, if they are not, indicate that the catheter position should be adjusted. - a registering means arranged to register the myoelectric signals recorded by the electrode pairs of the oesophageal catheter, and - control means arranged to determine which electrode pair or pairs record the signal with the highest amplitude, - at least one electrode arranged to stimulate muscular activity of a diaphragm by applying a stimulus signal, and in that - the control means is arranged to cause the at least one electrode to stimulate the muscular activity of the diaphragm to provide a well-defined peak in the myoelectrical signal at a specific point in time, and, based on the signals registered by the registering means, determine if the electrode pair or pairs that record the highest amplitude at said specific point in time are located in or close to the middle of the catheter and, if they are not, indicate that the catheter position should be adjusted.
A method of extending a Bluetooth intercom communication range, comprising the steps of: a. During the pairing process between a first headset communication device and a second headset communication device, providing cellular related parameters, to be stored in a memory module of each headset communication device (11, 12), in addition to the common Bluetooth required parameters, such that the cellular related parameters of the first headset includes a cellular phone number associated with said second headset and vice versa; b. Establishing an intercom communication between both headsets (11, 12) via a Bluetooth channel; and c. Upon detecting intercom communication loss at said Bluetooth channel or unavailable Bluetooth link during said intercom communication, temporarily routing the intercom communication to an alternate cellular communication channel until the Bluetooth channel becomes available again by initiating a cellular call between said first and second headsets (11, 12) using the stored cellular phone number of the second headset using the alternate cellular communication channel, the method further comprising generating an alert when the communication is changing medium from Bluetooth to cellular for allowing each user of the headset (11, 12) to choose whether to accept or deny the cellular call. a. During the pairing process between a first headset communication device and a second headset communication device, providing cellular related parameters, to be stored in a memory module of each headset communication device (11, 12), in addition to the common Bluetooth required parameters, such that the cellular related parameters of the first headset includes a cellular phone number associated with said second headset and vice versa; b. Establishing an intercom communication between both headsets (11, 12) via a Bluetooth channel; and c. Upon detecting intercom communication loss at said Bluetooth channel or unavailable Bluetooth link during said intercom communication, temporarily routing the intercom communication to an alternate cellular communication channel until the Bluetooth channel becomes available again by initiating a cellular call between said first and second headsets (11, 12) using the stored cellular phone number of the second headset using the alternate cellular communication channel, the method further comprising generating an alert when the communication is changing medium from Bluetooth to cellular for allowing each user of the headset (11, 12) to choose whether to accept or deny the cellular call.