mhurhangee/ep-ind-claims huggingface dataset:
An image processing system comprising: a reception unit configured to receive authentication information from a user; an authentication unit configured to authenticate the user based on the authentication information received by the reception unit; a selection unit configured to select, according to an operation of an administrator, a folder setting method from among a first method, a second method and a third method; a control unit configured to display an address book key and a setting key, wherein, in a case where the displayed address book key is operated, a destination of image data is settable by the user from addresses included in an address book; a setting unit configured to set, as a destination of image data, folder information according to the folder setting method selected by the selection unit, in a case where the displayed setting key is operated by the user; and a transmission unit configured to send the image data to the set destination, wherein the first method sets, as the destination of the image data, folder information registered in the image processing system in advance by the user, the second method sets, as the destination of the image data, folder information obtained by adding a user name of the authenticated user to path information registered in the image processing system in advance by the administrator, said path information being information commonly used by a plurality of users, and the third method sets, as the destination of the image data, folder information notified from an authentication server for the authentication by the authentication unit. a reception unit configured to receive authentication information from a user; an authentication unit configured to authenticate the user based on the authentication information received by the reception unit; a selection unit configured to select, according to an operation of an administrator, a folder setting method from among a first method, a second method and a third method; a control unit configured to display an address book key and a setting key, wherein, in a case where the displayed address book key is operated, a destination of image data is settable by the user from addresses included in an address book; a setting unit configured to set, as a destination of image data, folder information according to the folder setting method selected by the selection unit, in a case where the displayed setting key is operated by the user; and a transmission unit configured to send the image data to the set destination, wherein the first method sets, as the destination of the image data, folder information registered in the image processing system in advance by the user, the second method sets, as the destination of the image data, folder information obtained by adding a user name of the authenticated user to path information registered in the image processing system in advance by the administrator, said path information being information commonly used by a plurality of users, and the third method sets, as the destination of the image data, folder information notified from an authentication server for the authentication by the authentication unit.
A process for the production of methanol from a synthesis gas containing hydrogen and carbon oxides with a high content of inert components, wherein - a first synthesis gas stream is passed as feed stream through at least one methanol pre-reactor, in which a part of the carbon oxides is catalytically converted with hydrogen to obtain methanol, the methanol produced is separated and thus a second synthesis gas stream is obtained, - the second synthesis gas stream is passed through at least one methanol main reactor, in which a further part of the carbon oxides is catalytically converted with hydrogen to obtain methanol, the methanol produced is separated and thus a third synthesis gas stream is obtained, - the third synthesis gas stream is divided into a fourth synthesis gas stream and a fifth synthesis gas stream, wherein the fourth synthesis gas stream is recirculated to the methanol main reactor and in this way forms an inner synthesis cycle, - the fifth synthesis gas stream is supplied to at least one inert gas separation stage, wherein a sixth recirculation stream depleted of inert components and a purge stream enriched in inert components are obtained, - the sixth recirculation stream depleted of inert components is recirculated to the methanol main reactor or reactors and in this way forms an outer synthesis cycle. - a first synthesis gas stream is passed as feed stream through at least one methanol pre-reactor, in which a part of the carbon oxides is catalytically converted with hydrogen to obtain methanol, the methanol produced is separated and thus a second synthesis gas stream is obtained, - the second synthesis gas stream is passed through at least one methanol main reactor, in which a further part of the carbon oxides is catalytically converted with hydrogen to obtain methanol, the methanol produced is separated and thus a third synthesis gas stream is obtained, - the third synthesis gas stream is divided into a fourth synthesis gas stream and a fifth synthesis gas stream, wherein the fourth synthesis gas stream is recirculated to the methanol main reactor and in this way forms an inner synthesis cycle, - the fifth synthesis gas stream is supplied to at least one inert gas separation stage, wherein a sixth recirculation stream depleted of inert components and a purge stream enriched in inert components are obtained, - the sixth recirculation stream depleted of inert components is recirculated to the methanol main reactor or reactors and in this way forms an outer synthesis cycle.
A microcrystal structure analysis apparatus comprising: a magnetic field generation unit; a sample drive unit configured to rotate a sample having microcrystals suspended therein relative to the magnetic field generation unit such that a temporally varying magnetic field is applied to the sample to three-dimensionally orient the microcrystals; an X-ray source configured to apply X rays to the sample that is being rotated by the sample drive unit; an X-ray detection unit capable of detecting the X rays that have passed through and have been diffracted by the sample; and a state switching device configured to switch between a first state where detection of the X rays by the X-ray detection unit is disenabled and a second state where detection of the X rays by the X-ray detection unit is enabled characterized in that the state switching device is configured to perform a changeover to the first state when a specific part which is part of the sample in a rotation direction thereof undergoes a change of condition from a first condition to a second condition, the first condition being a condition where the specific part is directed in a desired direction, the second condition being a condition where the specific part is not directed in the desired direction, and wherein the state switching device is configured to perform a changeover to the second state when the specific part undergoes a change of condition from the second condition to the first condition. a magnetic field generation unit; a sample drive unit configured to rotate a sample having microcrystals suspended therein relative to the magnetic field generation unit such that a temporally varying magnetic field is applied to the sample to three-dimensionally orient the microcrystals; an X-ray source configured to apply X rays to the sample that is being rotated by the sample drive unit; an X-ray detection unit capable of detecting the X rays that have passed through and have been diffracted by the sample; and a state switching device configured to switch between a first state where detection of the X rays by the X-ray detection unit is disenabled and a second state where detection of the X rays by the X-ray detection unit is enabled characterized in that the state switching device is configured to perform a changeover to the first state when a specific part which is part of the sample in a rotation direction thereof undergoes a change of condition from a first condition to a second condition, the first condition being a condition where the specific part is directed in a desired direction, the second condition being a condition where the specific part is not directed in the desired direction, and wherein the state switching device is configured to perform a changeover to the second state when the specific part undergoes a change of condition from the second condition to the first condition.
A system, comprising: a fuel cell having a fuel cell inlet to receive preheated intake gas and a fuel cell outlet to release hot fuel cell exhaust; a heat exchanger having a HX cold-side inlet, a HX cold-side outlet, a HX hot-side inlet and a HX hot-side outlet; and a thermoelectric generator to generate electric energy based on a temperature differential between a TE cold-side and a TE hot-side, the TE comprising: a TE cold-side inlet to receive intake gases; a TE cold-side outlet coupled to the HX cold-side inlet; a TE hot-side inlet coupled to the fuel cell outlet to receive the hot fuel cell exhaust; and a TE hot-side outlet coupled to the HX hot-side inlet, characterized in that the system further comprises a TE bypass between the fuel cell outlet and the HX hot-side inlet and a bypass control valve, wherein the bypass control valve is adjustable to control an inlet temperature of the preheated intake gas by controlling the flow of the hot fuel cell exhaust to bypass the TE. a fuel cell having a fuel cell inlet to receive preheated intake gas and a fuel cell outlet to release hot fuel cell exhaust; a heat exchanger having a HX cold-side inlet, a HX cold-side outlet, a HX hot-side inlet and a HX hot-side outlet; and a thermoelectric generator to generate electric energy based on a temperature differential between a TE cold-side and a TE hot-side, the TE comprising: a TE cold-side inlet to receive intake gases; a TE cold-side outlet coupled to the HX cold-side inlet; a TE hot-side inlet coupled to the fuel cell outlet to receive the hot fuel cell exhaust; and a TE hot-side outlet coupled to the HX hot-side inlet, characterized in that the system further comprises a TE bypass between the fuel cell outlet and the HX hot-side inlet and a bypass control valve, wherein the bypass control valve is adjustable to control an inlet temperature of the preheated intake gas by controlling the flow of the hot fuel cell exhaust to bypass the TE. a TE cold-side inlet to receive intake gases; a TE cold-side outlet coupled to the HX cold-side inlet; a TE hot-side inlet coupled to the fuel cell outlet to receive the hot fuel cell exhaust; and a TE hot-side outlet coupled to the HX hot-side inlet, characterized in that the system further comprises a TE bypass between the fuel cell outlet and the HX hot-side inlet and a bypass control valve, wherein the bypass control valve is adjustable to control an inlet temperature of the preheated intake gas by controlling the flow of the hot fuel cell exhaust to bypass the TE.
A reinforcing method for a steel structure in which a fiber sheet including reinforcing fibers (f) is bonded to a surface of the steel structure to integrate the fiber sheet with the steel structure, the method comprising the steps of: (a) applying a polyurea resin putty to the surface of the steel structure and hardening the polyurea resin putty to form an elastic layer; and (b) bonding the fiber sheet to the surface of the steel structure having the elastic layer formed thereon with an adhesive agent, wherein the polyurea resin putty has a tensile elongation of 400% or more after curing, a tensile strength of 8 N/mm 2 or more, and a tensile elasticity modulus of 60 N/mm 2 or more and 500 N/mm 2 or less, and wherein the adhesive agent used in the step (b) has a glass transition temperature adjusted to make it possible to maintain a reinforcing effect even at a high temperature, preferably the adhesive agent has a glass transition temperature of 60°C or more. (a) applying a polyurea resin putty to the surface of the steel structure and hardening the polyurea resin putty to form an elastic layer; and (b) bonding the fiber sheet to the surface of the steel structure having the elastic layer formed thereon with an adhesive agent,
Latch having a locking mechanism consisting of a catch and a pawl for locking the catch in a closed position of the latch, having a detection device for detecting a position of a movable component of the latch, the detection device comprising a spring (7, 8) attached to the component, and in that the spring (7, 8) opens or closes an electrical circuit (7, 8, 11, 12) when the component and the spring (7, 8) connected thereto is moved, characterized in that the spring (7, 8) of the detection device abuts a further spring when the circuit is in the closed state, and preferably in the preloaded state.
Sports equipment designed to be deployed on the ground to divide two playing areas, of the kind comprising a runner having at least two bows (2,4) spaced apart resting on the ground, leaning toward one another and jointed together at two spaced points, above the ground, a tie holding the two bows in upward tension and resting on the ground in the vicinity of their respective middle portions, characterized in that each bow includes several segments connected end to end by lockable hinges, and in that said bows are deployed, in the operating position in such a way that said hinges are kept locked by the tension in said tie.
A tool for the injection molding of plastic parts, having two tool halves (1, 2) that can be opened and closed, with mold cavities for the plastic parts to be injection-molded being formed between said tool halves (1, 2), wherein a mold insert with electric and/or electronic devices is arranged in at least one of the two tool halves (1, 2) in a detachable manner and wherein the electric connection to the electric and/or electronic and/or optical devices is achieved across the allocated tool half by means of an electric plug connector, wherein the electric plug connector is formed by a pair consisting of a male connector and a female connector, wherein one of the male connector and the female connector is fixedly arranged in the tool half and the correspondingly other one is fixedly arranged in the mold insert and contact each other when the mold insert is inserted into the tool half, characterised in that the electric plug connector is formed in such a manner that, when the mold insert is inserted into the tool half, the electric plug connector is the first to be grounded, and wherein the electric and/or electronic devices are an internal heater in the vicinity of the plastic supply, an electric drive, a sensor for temperature or pressure measurement, and/or a switch for controlling and regulating.
IDC contact element for an electrical plug, the IDC contact element comprising: - at least one wire contact section being adapted to cut through an insulation of a cable and contact a wire of the cable, the wire contact section having a slot-like cable reception that ends in an opening at a proximal end of the IDC contact element, and - at least one second contact section being adapted to contact an external element of the plug, the second contact section comprising: - a contact point, and - a contact spring, wherein the contact point is located at the proximal end of the IDC contact element, wherein the contact spring is situated between the wire contact section and the contact point, pushing the contact point towards the proximal end, characterized in that the IDC contact element has two second contact sections (3A, 3B) extending alongside the opening and the slot-like cable reception and in that the wire contact section is connected to the second contact sections (3A, 3B) at a base portion located at a distal end of the IDC contact element opposite the proximal end, and in that the two second contact sections (3A, 3B) are located at opposite sides of the wire contact section and said two contact sections (3A, 3B) are axially symmetric to each other around an axis running through the slot-like cable reception, and that the opening is located between the two contact points (7A, 7B). - at least one wire contact section being adapted to cut through an insulation of a cable and contact a wire of the cable, the wire contact section having a slot-like cable reception that ends in an opening at a proximal end of the IDC contact element, and - at least one second contact section being adapted to contact an external element of the plug, the second contact section comprising: - a contact point, and - a contact spring, - a contact point, and - a contact spring,
A method of wireless communications, comprising: obtaining different sets of samples for at least one data signal and at least one reference signal; spreading the different sets of samples for the at least one data signal and the at least one reference signal using separate discrete Fourier transform, DFT, processing blocks, wherein the spreading includes skipping DFT processing for reference signals having a Zadoff-Chu, ZC, sequence; interlacing the spreaded sets of samples by assigning the spreaded sets of samples from each of the separate DFT processing blocks to non-consecutive, equally spaced apart tones; and transmitting the at least one data signal and the at least one reference signal on the assigned tones in an orthogonal frequency division multiplexed, OFDM, symbol. obtaining different sets of samples for at least one data signal and at least one reference signal; spreading the different sets of samples for the at least one data signal and the at least one reference signal using separate discrete Fourier transform, DFT, processing blocks, wherein the spreading includes skipping DFT processing for reference signals having a Zadoff-Chu, ZC, sequence; interlacing the spreaded sets of samples by assigning the spreaded sets of samples from each of the separate DFT processing blocks to non-consecutive, equally spaced apart tones; and transmitting the at least one data signal and the at least one reference signal on the assigned tones in an orthogonal frequency division multiplexed, OFDM, symbol.
A thermal control system for a tramcar, comprising a roof profile arranged above a compartment roof of the tramcar, and a fuel cell system and an air-conditioning system arranged above the roof profile, the thermal control system further comprising: a heat dissipating system arranged above the roof profile that is connected with the fuel cell system via a piping, the piping being provided with a circulating pump for pumping a coolant to the heat dissipating system, wherein a heat-conducting medium is arranged between the heat dissipating system and the roof profile, to transfer, to the roof profile, heat of the coolant outputted from the fuel cell system, and wherein the roof profile is internally arranged with a hollow air duct that is configured to form convection between the heat of the coolant transferred to the roof profile from the coolant and cold air produced by the air-conditioning system.
Inkjet printing apparatus comprising a printhead mounted on a first carriage, a printhead maintenance assembly including a first maintenance element, the printhead maintenance assembly mounted on a second carriage, a transport assembly operable to move sheet media past the printhead in a transport direction along a transport path for printing thereon by the printhead, a first reciprocal drive to drive the first carriage between a first position in which the printhead is positioned for printing onto sheet media in the transport path and a second position in which a space is established between the printhead and the transport path, a second reciprocal drive for driving the second carriage to effect a two phase movement of the second carriage, with a first phase to locate the first maintenance element in an operating position relative to the printhead 36 corresponding to movement between a third position in which the maintenance assembly is parked at a position allowing printing of transported sheet media by the printhead and a fourth position in which the maintenance assembly occupies the space and the first maintenance element is positioned for performing a maintenance operation on the printhead, and a second phase of movement of the second carriage from the fourth position to a fifth position to displace the first maintenance element from its operating position relative to the printhead and to locate a second maintenance element in an operating position relative to the printhead, wherein the second reciprocal drive is a belt drive, the belt drive for driving the second carriage in a first direction, characterized in that the belt is connected to a motion transfer device to convert a predetermined movement of the belt to movement of the second carriage in a direction transverse to the first direction.
Polyethylene composition comprising - a base resin comprising a first ethylene homo- or copolymer component having a melt flow rate MFR 2 (2.16 kg, 190°C) of equal to or more than 130 g/10 min to equal to or less than 300 g/10 min, determined according to ISO 1133, and a second ethylene homo- or copolymer component, - optional carbon black, - optional further polymer component(s) different to the first ethylene homo- or copolymer components and, and - optional additive(s); wherein the first ethylene homo- or copolymer component has a lower weight average molecular weight as the second ethylene homo- or copolymer component; the polyethylene composition has a melt flow rate MFR 5 (5 kg, 190°C) of more than 0.60 g/10 min to less than 1.00 g/10 min, determined according to ISO 1133, and a shear thinning index SHI 2.7/210 of equal to or more than 10 to equal to or less than 27. - a base resin comprising a first ethylene homo- or copolymer component having a melt flow rate MFR 2 (2.16 kg, 190°C) of equal to or more than 130 g/10 min to equal to or less than 300 g/10 min, determined according to ISO 1133, and a second ethylene homo- or copolymer component, a first ethylene homo- or copolymer component having a melt flow rate MFR 2 (2.16 kg, 190°C) of equal to or more than 130 g/10 min to equal to or less than 300 g/10 min, determined according to ISO 1133, and a second ethylene homo- or copolymer component, - optional carbon black, - optional further polymer component(s) different to the first ethylene homo- or copolymer components and, and - optional additive(s);
Operating resource container for a motor vehicle for intermediate storage of a liquid operating resource, which has a container volume delimited by a container housing, which serves for receiving the operating resource, and a removal point for removing the operating resource from the operating resource container, wherein the container housing has a housing base, side walls and a housing roof, and wherein the removal point is arranged on a container base of the operating resource container delimiting the container volume together with the container housing, and wherein the container base is formed at least in regions by a membrane, arranged in the container housing which is flexible and impermeable for the operating resource, wherein a first region of the membrane spaced apart from the removal point can be displaced relative to a second region of the membrane arranged at the removal point fixed with respect to the container housing, characterised in that an electrically-operated drive device is present for the displacement of the first region of the membrane.