mhurhangee/ep-ind-claims huggingface dataset:
Use of a compound as a contrast agent in MRI for obtaining a T2-weighted image with respect to the state of protons in which the contrast is increased, where the compound is represented by the following formula or a salt thereof: wherein R 1 represents a hydrogen atom or an acyl group, and R 2 represents a hydrogen atom, a linear or branched alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group.
An aluminum phosphite-based complex exhibiting a dual-peak upon thermal gravimetric analysis, a structural formula being as follows: ((HPO 3) 3 Al 2) • ((H 2 PO 3) 3 Al) x, wherein x is 0.01-0.5 and represents a molar ratio of (H 2 PO 3) 3 Al to (HPO 3) 3 Al 2. wherein the dual-peaks are as follows: a first peak temperature is 460-490°C, and a second peak temperature is 550-580°C. wherein x is 0.01-0.5 and represents a molar ratio of (H 2 PO 3) 3 Al to (HPO 3) 3 Al 2. wherein the dual-peaks are as follows: a first peak temperature is 460-490°C, and a second peak temperature is 550-580°C.
A tap holder including a tap collet for chucking a tap at one end thereof, comprising: a tapper body operable to receive an outer face side of the other end of the tap collet in an axial direction to fix unrotatably, and attach to a machine tool having a tap synchronizingly feeding mechanism, the tapper body further comprising: an outer cylinder portion formed with an attaching hollow portion to permit insertion of a shaft portion of the tap collet, and comprising a through-hole penetrating from an outer face of the outer cylinder portion to the attaching hollow portion in a diameter direction of the outer cylinder portion, a locking member, characterised in that, when said tap collet is inserted into the tapper body, the shaft portion comprises a through-hole penetrating in a diameter direction at a position in correspondence with the through-hole provided at the tapper body, the through hole of the tapper body and the through hole of the tap collet are communicated by inserting the shaft portion into the attaching hollow portion, thereby, the locking member is made to be able to be inserted to the outer cylinder portion and the shaft portion at which the tap collet and the tapper body are overlapped, wherein, an elastic member (82, 92) is provided within the through hole penetrating the tap collet in a diameter direction, and wherein the locking member engages the tap collet and the tapper body in a state of interposing the elastic member on both sides in an axial direction between the locking member and the tap collet. a tapper body operable to receive an outer face side of the other end of the tap collet in an axial direction to fix unrotatably, and attach to a machine tool having a tap synchronizingly feeding mechanism, the tapper body further comprising: an outer cylinder portion formed with an attaching hollow portion to permit insertion of a shaft portion of the tap collet, and comprising a through-hole penetrating from an outer face of the outer cylinder portion to the attaching hollow portion in a diameter direction of the outer cylinder portion, a locking member, characterised in that, when said tap collet is inserted into the tapper body, the shaft portion comprises a through-hole penetrating in a diameter direction at a position in correspondence with the through-hole provided at the tapper body, the through hole of the tapper body and the through hole of the tap collet are communicated by inserting the shaft portion into the attaching hollow portion, thereby, the locking member is made to be able to be inserted to the outer cylinder portion and the shaft portion at which the tap collet and the tapper body are overlapped, wherein, an elastic member (82, 92) is provided within the through hole penetrating the tap collet in a diameter direction, and wherein the locking member engages the tap collet and the tapper body in a state of interposing the elastic member on both sides in an axial direction between the locking member and the tap collet.
An electronic apparatus comprising: a communication unit configured to perform wireless communication with an external apparatus; a first controller configured to increase transmission power used for the wireless communication in response to a notification requesting an increase in the transmission power from the external apparatus; and a second controller configured to determine whether the increased transmission power is larger than or equal to a threshold value, and to decrease a ratio of transmission slots of time slots in a frame for communicating with the external apparatus, when the increased transmission power is larger than or equal to the threshold value, and to return the ratio of transmission slots of time slots in a frame for communicating with the external apparatus to an initial value, when the increased transmission power is smaller than the threshold value, wherein the time slots comprise the transmission slots and reception slots, and the initial value is a value set by the second controller at a start of the wireless communication with the external apparatus. and wherein the communication unit is configured to transmit data to the external apparatus at times corresponding to the transmission slots in the frame and to receive data from the external apparatus at times corresponding to the reception slots in the frame. a communication unit configured to perform wireless communication with an external apparatus; a first controller configured to increase transmission power used for the wireless communication in response to a notification requesting an increase in the transmission power from the external apparatus; and a second controller configured to determine whether the increased transmission power is larger than or equal to a threshold value, and to decrease a ratio of transmission slots of time slots in a frame for communicating with the external apparatus, when the increased transmission power is larger than or equal to the threshold value, and to return the ratio of transmission slots of time slots in a frame for communicating with the external apparatus to an initial value, when the increased transmission power is smaller than the threshold value, wherein the time slots comprise the transmission slots and reception slots, and the initial value is a value set by the second controller at a start of the wireless communication with the external apparatus. and wherein the communication unit is configured to transmit data to the external apparatus at times corresponding to the transmission slots in the frame and to receive data from the external apparatus at times corresponding to the reception slots in the frame.
A device (1, 2) for molding a thin plate-shaped substrate, the device being configured for press molding a pre-molded article obtained by pre-molding a thin plate-shaped substrate to a prescribed irregular shape, the device (1, 2) for molding a thin plate-shaped substrate comprising: a first die (10, 50) and a second die (20, 60) disposed so as to be capable of moving towards and away from each other; protruding portions disposed on the second die (20, 60) to protrude towards the first die (10, 50), and provided with leading edges for forming stretched portions stretched by localized pressing of the pre-molded article, and side edges for inducing deflection in sections that are continuous with the stretched portions, and forming bent portions in spaces bounded on one side by the first die (10, 50); tensioning portions for tensioning and stretching the bent portions; and a controller configured for controlling operations of the first die (10, 50), the second die (20, 60), and the tensioning portions, such that the bent portions are tensioned and stretched by the tensioning portions while the stretched portions of the pre-molded article are still pressed by the first die (10, 50) and the protruding portions of the second die (20, 60), to impart the shape of the protruding portions to the pre-molded article along the side edges of the protruding portions. a first die (10, 50) and a second die (20, 60) disposed so as to be capable of moving towards and away from each other; protruding portions disposed on the second die (20, 60) to protrude towards the first die (10, 50), and provided with leading edges for forming stretched portions stretched by localized pressing of the pre-molded article, and side edges for inducing deflection in sections that are continuous with the stretched portions, and forming bent portions in spaces bounded on one side by the first die (10, 50); tensioning portions for tensioning and stretching the bent portions; and a controller configured for controlling operations of the first die (10, 50), the second die (20, 60), and the tensioning portions, such that the bent portions are tensioned and stretched by the tensioning portions while the stretched portions of the pre-molded article are still pressed by the first die (10, 50) and the protruding portions of the second die (20, 60), to impart the shape of the protruding portions to the pre-molded article along the side edges of the protruding portions.
An end fitting of a wiper, said wiper having at least one vertebra and a wiper blade, the end fitting comprising a primary part and a secondary part (13, 49, 55, 60), the primary part comprising a housing that is able to receive the vertebra and a recess that is able to receive the wiper blade, said primary part also comprising a hole which opens into the housing and into the recess, said secondary part (13, 49, 55, 60) comprising a locking means that is able to immobilize the end fitting with respect to the wiper, said locking means extending into the hole, the primary part and the secondary part (13, 49, 55, 60) being connected by a removable fastening means, wherein the housing and the recess are distinct, wherein the primary part is formed by a body through which the hole passes and at the periphery of which the removable fastening means is formed, wherein the body has an upper face delimiting the housing, an intermediate wall which delimits both the housing and the recess, wherein the hole is made in the upper face and in the intermediate wall.
A process for producing a fluorine-containing compound by a precipitation reaction, characterized in that the fluorine-containing compound is precipitated from a reaction medium and in that during the course of the precipitation reaction the pH value of the reaction medium is determined using an electrochemical measuring chain, wherein the electrochemical measuring chain is an electrochemical measuring chain containing a hydrogen gas diffusion electrode 7 as an indicator electrode and at least one reference electrode, wherein the electrodes form a constructional unit with a housing 1 having an outlet 14, wherein the housing 1 comprises a reference electrolyte 11 in contact with the reference electrode and a sealed-off gas space 19 above the reference electrolyte 11 and wherein an electrolytic connection between the reference electrolyte and a measurement medium 9 is produced via the outlet 14.
A system, comprising: a first seismic source (400 -) configured to emit seismic energy by generation of a first air bubble into the seismic medium in a first direction at a first time; and a second seismic source (400 -) spaced a predefined distance from the first seismic source, the second seismic source configured to emit seismic energy by generation of a second air bubble into the seismic medium in a second direction at a second time after the first time, wherein the first direction is different than the second direction, wherein outlet ports of the first and second seismic source are oriented in different directions from one another, wherein the seismic energy emitted by the first and second seismic sources has a low frequency characteristic, wherein a time period between the first time and the second time is selected based on the predefined distance, the seismic medium, and a volume of the first and second air bubbles. a first seismic source (400 -) configured to emit seismic energy by generation of a first air bubble into the seismic medium in a first direction at a first time; and a second seismic source (400 -) spaced a predefined distance from the first seismic source, the second seismic source configured to emit seismic energy by generation of a second air bubble into the seismic medium in a second direction at a second time after the first time, wherein the first direction is different than the second direction, wherein outlet ports of the first and second seismic source are oriented in different directions from one another, wherein the seismic energy emitted by the first and second seismic sources has a low frequency characteristic, wherein a time period between the first time and the second time is selected based on the predefined distance, the seismic medium, and a volume of the first and second air bubbles.
An anode active material for secondary batteries, capable of intercalating and deintercalating ions, the anode active material comprising: a core comprising a crystalline carbon-based material; and a composite coating layer comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, and silicon oxide capable of intercalating and deintercalating ions, wherein the composite coating layer comprises: a matrix comprising one component selected from (a) the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon and (b) the silicon oxide capable of intercalating and deintercalating ions; and a filler comprising the other component, incorporated in the matrix. a core comprising a crystalline carbon-based material; and a composite coating layer comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, and silicon oxide capable of intercalating and deintercalating ions, wherein the composite coating layer comprises: a matrix comprising one component selected from (a) the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon and (b) the silicon oxide capable of intercalating and deintercalating ions; and a filler comprising the other component, incorporated in the matrix. a matrix comprising one component selected from (a) the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon and (b) the silicon oxide capable of intercalating and deintercalating ions; and a filler comprising the other component, incorporated in the matrix.
A method, comprising: transmitting, between a first device and a second device, a trigger message using near field communication, NFC, said first device comprising a wireless terminal with a NFC component and said second device comprising a NFC enabled device wherein the trigger message initiates a registration process between said wireless terminal and a wireless access point AP, and wherein said trigger message, when originated from said second device, or a response message from said second device to the trigger message when the trigger message is originated from the first device, comprises a device identifier that identifies the second device and an identifier that identifies the AP; and using the device identifier and the AP identifier for the registration process. transmitting, between a first device and a second device, a trigger message using near field communication, NFC, said first device comprising a wireless terminal with a NFC component and said second device comprising a NFC enabled device wherein the trigger message initiates a registration process between said wireless terminal and a wireless access point AP, and wherein said trigger message, when originated from said second device, or a response message from said second device to the trigger message when the trigger message is originated from the first device, comprises a device identifier that identifies the second device and an identifier that identifies the AP; and using the device identifier and the AP identifier for the registration process.
Perforated, thermoplastic films having uniform thickness over their entire area (1.1), suitable for use as an intermediate layer of a composite pane, wherein the perforation is formed by at least one grid zone of a plurality of holes, which grid zone extends over part of the entire area (1.1) or over the entire area (1.1), wherein the holes are arranged such that a mass gradient results, in at least one direction in the plastic films, wherein mass gradient means that because of the perforation, the mass of the perforated, thermoplastic films changes in this direction.
A shoe comprising an upper consisting of a three-dimensional knitted fabric which has two interconnected knitted fabric layers (35, 37), in which upper the outer fabric layer facing the upper exterior has a greater surface area than the inner fabric layer facing the upper interior, characterized in that the two fabric layers (35, 37) are interconnected by a filler/standing thread, which is partially intermeshed or tucked in different densities/needle spacings.
A method for marking a petroleum hydrocarbon or biologically derived fuel that is in the liquid state at 20°C; said method comprising adding to said petroleum hydrocarbon or biologically derived fuel at least one compound having formula, wherein G 1 represents an organic functional group having from four to forty carbon atoms, and wherein each compound of formula is present at a level from 0.01 ppm to 50 ppm.
A process for the preparation of thioether, wherein R 1 is selected from the group consisting of C 1 -C 4 haloalkyl and C 1 -C 4 alkyl-C 3 -C 6 halocycloalkyl, said process which comprises acylating 3-chloro- N -ethyl-1 H -pyrazol-4-amine with an acyl chloride of the formula ClC (C 1 -C 4 alkyl)SR 1 in the presence of a base.
An austenitic stainless steel comprising a chemical composition comprising, in mass%: C: 0.10% or less; Si: 1.0% or less; Mn: 2.1 to 6.0%; P: 0.045% or less; S: 0.1% or less; Ni: 8.0 to 16.0%; Cr: 18.0 to 30.0%; Mo: 1.0 to 5.0%; N: 0.05 to 0.45%; Nb: 0 to 0.50%; and V: 0 to 0.50%, with the balance being Fe and impurities, and satisfies Formula, the austenitic stainless steel having a grain size number specified in JIS G0551 of 3.0 to less than 8.0 and a tensile strength at 25° C of 690 MPa or more: 15 ≤ 12.6 ⁢ C + 1.05 ⁢ Mn + Ni + 15 ⁢ N where symbols of elements in Formula are to be substituted by contents of the corresponding elements (in mass%). C: 0.10% or less; Si: 1.0% or less; Mn: 2.1 to 6.0%; P: 0.045% or less; S: 0.1% or less; Ni: 8.0 to 16.0%; Cr: 18.0 to 30.0%; Mo: 1.0 to 5.0%; N: 0.05 to 0.45%; Nb: 0 to 0.50%; and V: 0 to 0.50%, with the balance being Fe and impurities, and satisfies Formula, the austenitic stainless steel having a grain size number specified in JIS G0551 of 3.0 to less than 8.0 and a tensile strength at 25° C of 690 MPa or more:
An anti-intrusion fog generator for generating fog at an intrusion event, said fog generator comprising: - a fluid reservoir, arranged for containing a volume of fog fluid; - a heat exchanger, arranged for vaporizing said fog fluid into fog; - a pump, in fluidal connection with said fluid reservoir and said heat exchanger, arranged for transporting said fog fluid towards said heat exchanger; - a controller unit, in communicative connection with said pump and said heat exchanger, arranged for driving said pump to transport said fog fluid towards said heat exchanger upon receipt of an anti-intrusion activation signal; said fog generator further comprising: - at least one fog vessel, in fluidal connection with said heat exchanger, arranged for containing a volume of pressurized fog fluid; - a valve, located between said at least one fog vessel and said heat exchanger, arranged for allowing transport of said pressurized fog fluid towards said heat exchanger; wherein said at least one fog vessel comprises a fitting arranged for refill of said at least one fog vessel, and said fog generator is arranged for transporting fog fluid from said fluid reservoir towards said at least one fog vessel. - a fluid reservoir, arranged for containing a volume of fog fluid; - a heat exchanger, arranged for vaporizing said fog fluid into fog; - a pump, in fluidal connection with said fluid reservoir and said heat exchanger, arranged for transporting said fog fluid towards said heat exchanger; - a controller unit, in communicative connection with said pump and said heat exchanger, arranged for driving said pump to transport said fog fluid towards said heat exchanger upon receipt of an anti-intrusion activation signal; said fog generator further comprising: - at least one fog vessel, in fluidal connection with said heat exchanger, arranged for containing a volume of pressurized fog fluid; - a valve, located between said at least one fog vessel and said heat exchanger, arranged for allowing transport of said pressurized fog fluid towards said heat exchanger;
A computer-implemented method for resynchronizing bundle interfaces (A, B, C) associated with network devices (202, 204, 206) in a network, comprising: synchronizing a first bundle interface associated with a first network device with a second bundle interface associated with a second network device, the first bundle interface having a first plurality of links (A1-A3) associated therewith, the second bundle interface having a second plurality of links (B1-B3) associated therewith, a plurality of connections existing between the first and second pluralities of links (A1-A3, B1-B3); determining whether all of the connections between the first plurality of links (A1-A3) and the second plurality of links (B1-B3) have been physically relocated from the second plurality of links (B1-B3) to a third plurality of links (C1-C3) associated with a third bundle interface, different from the second bundle interface; when it is determined that all of the connections between the first plurality of links (A1-A3) and the second plurality of links (B1-B3) have been physically relocated, automatically deleting bundle interface identification data stored during synchronization of the first and second bundle interfaces (A, B) and resynchronizing the first bundle interface with the third bundle interface; wherein the automatic resynchronisation of bundle interfaces is effected only where all of the connections between the first plurality of links (A1-A3) and the second plurality of links (B1-B3) have been physically relocated from the second plurality of links (B1-B3) to the third plurality of links (C1-C3) associated with the third bundle interface. synchronizing a first bundle interface associated with a first network device with a second bundle interface associated with a second network device, the first bundle interface having a first plurality of links (A1-A3) associated therewith, the second bundle interface having a second plurality of links (B1-B3) associated therewith, a plurality of connections existing between the first and second pluralities of links (A1-A3, B1-B3); determining whether all of the connections between the first plurality of links (A1-A3) and the second plurality of links (B1-B3) have been physically relocated from the second plurality of links (B1-B3) to a third plurality of links (C1-C3) associated with a third bundle interface, different from the second bundle interface; when it is determined that all of the connections between the first plurality of links (A1-A3) and the second plurality of links (B1-B3) have been physically relocated, automatically deleting bundle interface identification data stored during synchronization of the first and second bundle interfaces (A, B) and resynchronizing the first bundle interface with the third bundle interface; wherein the automatic resynchronisation of bundle interfaces is effected only where all of the connections between the first plurality of links (A1-A3) and the second plurality of links (B1-B3) have been physically relocated from the second plurality of links (B1-B3) to the third plurality of links (C1-C3) associated with the third bundle interface.