mhurhangee/ep-ind-claims huggingface dataset:
A compound represented by the formula: wherein X 1, X 2, X 3 and X 4 are each independently a nitrogen atom, or CR a; Y is an oxygen atom, NR b, or CR c R d; R 1 is an optionally substituted C 1-6 alkyl group, an optionally substituted hydrocarbon ring group, or an optionally substituted heterocyclic group bonded on the carbon atom; R 2 is a hydrogen atom, or an optionally substituted C 1-6 alkyl group; R 3 is an optionally substituted C 1-6 alkyl group, or an optionally substituted cyclic group; Ring A is an optionally further substituted pyrrolidine ring; R a, R c and R d are each independently a hydrogen atom, a halogen atom, an optionally substituted C 1-6 alkyl group, or an optionally substituted C 1-6 alkoxy group; and R b is a hydrogen atom, or an optionally substituted C 1-6 alkyl group, or a salt thereof. X 1, X 2, X 3 and X 4 are each independently a nitrogen atom, or CR a; Y is an oxygen atom, NR b, or CR c R d; R 1 is an optionally substituted C 1-6 alkyl group, an optionally substituted hydrocarbon ring group, or an optionally substituted heterocyclic group bonded on the carbon atom; R 2 is a hydrogen atom, or an optionally substituted C 1-6 alkyl group; R 3 is an optionally substituted C 1-6 alkyl group, or an optionally substituted cyclic group; Ring A is an optionally further substituted pyrrolidine ring; R a, R c and R d are each independently a hydrogen atom, a halogen atom, an optionally substituted C 1-6 alkyl group, or an optionally substituted C 1-6 alkoxy group; and R b is a hydrogen atom, or an optionally substituted C 1-6 alkyl group,
A method of monitoring a temperature sensor connected to a control unit of a cooking device via a radio link for checking the presence of the temperature sensor, characterized in that the following steps are carried out: checking the presence of the temperature sensor by emitting a signal and outputting a visual and/or acoustic indicator signal depending on the reception of the signal by the control unit sending a signal to the temperature sensor at predetermined time intervals, and the control unit expecting a response signal from the temperature sensor, and, depending on the signal strength received at the control unit, the visual and/or acoustic indicator signal is output if the strength of the signal received by the control unit falls below a predefined threshold value, or by the temperature sensor sending a signal to the control unit at predetermined time intervals and the control unit outputting the visual and/or acoustic indicator signal depending on the signal strength received. checking the presence of the temperature sensor by emitting a signal and outputting a visual and/or acoustic indicator signal depending on the reception of the signal by the control unit sending a signal to the temperature sensor at predetermined time intervals, and the control unit expecting a response signal from the temperature sensor, and, depending on the signal strength received at the control unit, the visual and/or acoustic indicator signal is output if the strength of the signal received by the control unit falls below a predefined threshold value, or by the temperature sensor sending a signal to the control unit at predetermined time intervals and the control unit outputting the visual and/or acoustic indicator signal depending on the signal strength received.
Use of a diene to promote an ethenolysis reaction conducted on a monoalkene, which comprises a method of ethenolysis of a monoalkene, comprising introducing into a reaction vessel a monoalkene, ethylene and a diene, and subjecting the monoalkene to ethenolysis in the presence of an alkylidene ruthenium alkene metathesis catalyst and the diene, wherein the metathesis catalyst comprises two ligands P 1 and P 2, which may be the same or different and of formula P(R 1) 3, in which P is a phosphorus atom coordinated to the ruthenium ion and each R 1 is independently an optionally substituted alkyl or alkoxy group; or two R 1 groups within one P 1 or P 2 ligand and the phosphorus atom to which they are attached constitute 9-phosphabicyclononane and the third R 1 group within the same ligand is an alkyl or cycloalkyl group.
Immunostimulant composition comprising at least one toll-like receptor 7 or toll-like receptor 8 agonist, and also a toll-like receptor 4 agonist, characterized in that: - the toll-like receptor 7 or toll-like receptor 8 agonist is an imidazoquinoline amine derivative, - the toll-like receptor 4 agonist is ER804057, and in that it also comprises a vaccine antigen other than a coding DNA. - the toll-like receptor 7 or toll-like receptor 8 agonist is an imidazoquinoline amine derivative, - the toll-like receptor 4 agonist is ER804057, and
A compound of formula 1b, 1q, or 1s: or a pharmaceutically acceptable salt or solvate thereof; for use as a medicament. or a pharmaceutically acceptable salt or solvate thereof; for use as a medicament.
A cable transportation system for moving transportation units along a given track, the cable transportation system comprising a plurality of fixed rails (4, 5, 6, 7) in a given plane; and a switch located between the fixed rails (4, 5, 6, 7) and comprising: - a first and second movable rails (15, 16) movable alternately and designed to assume respective work positions, in which the movable rails (15, 16) lie along the given plane, and respective rest positions, in which the movable rails (15, 16) are located beneath the given plane; - actuating assembly comprising one actuator for moving the first and second movable rail (15, 16); - an articulated mechanism having one degree of freedom and comprising a first articulated parallelogram comprising the first movable rail, two first cranks (21, 22), and a fixed structure; and a second articulated parallelogram comprising the second movable rail, two second cranks (25, 26), and the fixed structure, - wherein the first and second movable rail (15, 16), in their respective work positions, rest against respective fixed rails (7, 5) and perform respective rotation-translation movements; the respective work positions correspond to the respective first and second cranks (21, 22, 25, 26) being located slightly beyond their respective top dead centre positions. - a first and second movable rails (15, 16) movable alternately and designed to assume respective work positions, in which the movable rails (15, 16) lie along the given plane, and respective rest positions, in which the movable rails (15, 16) are located beneath the given plane; - actuating assembly comprising one actuator for moving the first and second movable rail (15, 16); - an articulated mechanism having one degree of freedom and comprising a first articulated parallelogram comprising the first movable rail, two first cranks (21, 22), and a fixed structure; and a second articulated parallelogram comprising the second movable rail, two second cranks (25, 26), and the fixed structure, - wherein the first and second movable rail (15, 16), in their respective work positions, rest against respective fixed rails (7, 5) and perform respective rotation-translation movements; the respective work positions correspond to the respective first and second cranks (21, 22, 25, 26) being located slightly beyond their respective top dead centre positions.
A signal processing circuit comprising: a first signal processor comprising a low pass filter and configured to receive a first input signal and to process the first input signal with the low pass filter to produce a first output signal suitable for driving a first headphone speaker; a second signal processor comprising a low pass filter and configured to receive a second input signal and to process the second input signal with the low pass filter to produce a second output signal suitable for driving a second headphone speaker; a third signal processor configured to receive the first input signal and/or the second input signal and to produce, based on the received signal or signals, a third output signal suitable for driving a first loudspeaker; and simultaneously provide the first output signal to the first headphone speaker, the second output signal to the second headphone speaker, and the third output signal to the first loudspeaker. a first signal processor comprising a low pass filter and configured to receive a first input signal and to process the first input signal with the low pass filter to produce a first output signal suitable for driving a first headphone speaker; a second signal processor comprising a low pass filter and configured to receive a second input signal and to process the second input signal with the low pass filter to produce a second output signal suitable for driving a second headphone speaker; a third signal processor configured to receive the first input signal and/or the second input signal and to produce, based on the received signal or signals, a third output signal suitable for driving a first loudspeaker; and simultaneously provide the first output signal to the first headphone speaker, the second output signal to the second headphone speaker, and the third output signal to the first loudspeaker.
A refrigerator comprising: a storage compartment formed in a cabinet of the refrigerator by a fixed insulation wall, the storage compartment being provided with an access opening; a door rotatably provided to the cabinet and configured to open and close the access opening; at least one drawer provided in the storage compartment; a lowermost shelf provided in the storage compartment, the lowermost shelf being positioned at an upper side of the drawer; an uppermost shelf provided in the storage compartment, the uppermost shelf being positioned at an upper side of the drawer; and a camera fixed to a ceiling of the storage compartment between a front edge of the uppermost shelf and the access opening and configured to photograph both: - a first region in which food is placed on the uppermost shelf, and - a second region provided in an internal space of the drawer for storing of food, and wherein the camera is configured to capture a photo including the first region and the second region, characterized in that the distance between the access opening of the storage compartment and the front edge of the uppermost shelf is less than the distance between the access opening of the storage compartment and the front edge of the lowermost shelf. a storage compartment formed in a cabinet of the refrigerator by a fixed insulation wall, the storage compartment being provided with an access opening; a door rotatably provided to the cabinet and configured to open and close the access opening; at least one drawer provided in the storage compartment; a lowermost shelf provided in the storage compartment, the lowermost shelf being positioned at an upper side of the drawer; an uppermost shelf provided in the storage compartment, the uppermost shelf being positioned at an upper side of the drawer; and a camera fixed to a ceiling of the storage compartment between a front edge of the uppermost shelf and the access opening and configured to photograph both: - a first region in which food is placed on the uppermost shelf, and - a second region provided in an internal space of the drawer for storing of food, and - a first region in which food is placed on the uppermost shelf, and - a second region provided in an internal space of the drawer for storing of food, and wherein the camera is configured to capture a photo including the first region and the second region, characterized in that the distance between the access opening of the storage compartment and the front edge of the uppermost shelf is less than the distance between the access opening of the storage compartment and the front edge of the lowermost shelf.
A method for operating a meter reading wireless mesh network comprising a plurality of wireless meter reading nodes in communication with an access point wherein the wireless mesh network has a desired maximum number of wireless meter reading nodes, and each wireless meter reading node has an address associated therewith, the method comprising: establishing a network address field for each wireless meter reading node, each network address field being represented by a length field and a value field, the length field having a fixed length and the value field having a variable length, wherein the length field specifies the number of bytes of the value field which is sufficient to span the desired maximum number of nodes; and communicating within the wireless mesh network using the network address fields.
A line detection processing method, comprising: detecting, by using a detection circuit, whether reverse power supply on a twisted pair line is discontinued; if the reverse power supply on the twisted pair line is discontinued, triggering a status switch to switch from a normal power supply state to a backup power supply state, so as to simultaneously trigger a line detection module and an energy storage capacitor; and performing detection on the twisted pair line between the line detection module and a user equipment by using the line detection module, and supplying power to the line detection module by using the energy storage capacitor. detecting, by using a detection circuit, whether reverse power supply on a twisted pair line is discontinued; if the reverse power supply on the twisted pair line is discontinued, triggering a status switch to switch from a normal power supply state to a backup power supply state, so as to simultaneously trigger a line detection module and an energy storage capacitor; and performing detection on the twisted pair line between the line detection module and a user equipment by using the line detection module, and supplying power to the line detection module by using the energy storage capacitor.
A resetting lead screw drive, comprising: a first brake component; a second brake component; a plunger coupling component; a lead screw positioned through the second brake component and coupled to the first brake component and the plunger coupling component; a tilt nut coupled to the lead screw; and a ratchet gear coupled to the tilt nut, characterised in that in a first cycle of operation as the second brake component is stationary, rotation of the ratchet gear in a first direction is configured to advance the first brake component, the lead screw, and the plunger coupling component toward a plunger positioned within a drug container to expel a portion of a stored liquid drug for delivery to a user, and wherein the first brake component, the lead screw, and the plunger coupling component are configured to remain stationary as the second brake component is advanced in a second cycle of operation. a first brake component; a second brake component; a plunger coupling component; a lead screw positioned through the second brake component and coupled to the first brake component and the plunger coupling component; a tilt nut coupled to the lead screw; and a ratchet gear coupled to the tilt nut, characterised in that in a first cycle of operation as the second brake component is stationary, rotation of the ratchet gear in a first direction is configured to advance the first brake component, the lead screw, and the plunger coupling component toward a plunger positioned within a drug container to expel a portion of a stored liquid drug for delivery to a user, and wherein the first brake component, the lead screw, and the plunger coupling component are configured to remain stationary as the second brake component is advanced in a second cycle of operation.
A method of shaping glass sheets in more than one dimension comprising: providing a glass sheet having a leading edge and a trailing edge, the glass sheet being at a temperature so as to be shapeable; conveying the glass sheet through a first shaping zone that defines a generally horizontally-disposed path for the glass sheet, the first shaping zone comprising paired sets of upper and lower shaping rolls, a plurality of the shaping rolls in the first shaping zone having a first predetermined shaping configuration (20, 22) and one or more other shaping rolls in the first shaping zone have a second predetermined shaping configuration (24, 26) that is different from the first predetermined shaping configuration, and wherein the speed at which the glass sheet is conveyed is changed at least once as it is conveyed through the first shaping zone; and conveying the glass sheet through a second shaping zone that defines a path for the glass sheet that is upwardly inclined relative to the path defined by the first shaping zone, wherein the incline of the second shaping zone is curved and further wherein the second shaping zone comprises paired sets of upper and lower shaping rolls having the first predetermined shaping configuration. providing a glass sheet having a leading edge and a trailing edge, the glass sheet being at a temperature so as to be shapeable; conveying the glass sheet through a first shaping zone that defines a generally horizontally-disposed path for the glass sheet, the first shaping zone comprising paired sets of upper and lower shaping rolls, a plurality of the shaping rolls in the first shaping zone having a first predetermined shaping configuration (20, 22) and one or more other shaping rolls in the first shaping zone have a second predetermined shaping configuration (24, 26) that is different from the first predetermined shaping configuration, and wherein the speed at which the glass sheet is conveyed is changed at least once as it is conveyed through the first shaping zone; and conveying the glass sheet through a second shaping zone that defines a path for the glass sheet that is upwardly inclined relative to the path defined by the first shaping zone, wherein the incline of the second shaping zone is curved and further wherein the second shaping zone comprises paired sets of upper and lower shaping rolls having the first predetermined shaping configuration.
A method of making a plurality of washer jets (33, 83) for a vehicular body including at least one three dimensionally curved liquid-carrying passageway (61, 63, 87), the method comprising: (a) creating a first layer of material to define a first section of the washer jets (33, 83), the first layer of material being deposited from a printing head onto a support surface of a three-dimensional machine in an ambient air environment; (b) emitting light onto the first layer in the ambient air environment to perform at least one of: (a) hardening, (b) curing or (c) bonding the first layer; (c) creating a second layer of the material upon the first layer to define a second section of the washer jets (33, 83) after the prior step, the second layer of material being deposited from the printing head; (d) emitting light onto the second layer to perform at least one of: (a) hardening, (b) curing or (c) bonding the second layer; (e) creating at least a third layer of the material upon the second layer to define at least a third section of the washer jets (33, 83) after the prior step, the third layer of material being deposited from the printing head; (f) emitting light onto the third layer to perform at least one of: (a) hardening, (b) curing or (c) bonding the third layer; and (g) removing the finished washer jets (33, 83) from the thee-dimensional printing machine which performs the creating and emitting steps, with the layers all being integrally connected to their adjacent layers; the plurality of the washer jets (33, 83) being functionally durable, made by the machine in the same manufacturing cycle in less than ninety minutes, and each including the at least one three dimensionally curved liquid-carrying passageway (61, 63, 87) that is entirely located within the integrally connected layers of the material except for ends of the passageway. (a) creating a first layer of material to define a first section of the washer jets (33, 83), the first layer of material being deposited from a printing head onto a support surface of a three-dimensional machine in an ambient air environment; (b) emitting light onto the first layer in the ambient air environment to perform at least one of: (a) hardening, (b) curing or (c) bonding the first layer; (c) creating a second layer of the material upon the first layer to define a second section of the washer jets (33, 83) after the prior step, the second layer of material being deposited from the printing head; (d) emitting light onto the second layer to perform at least one of: (a) hardening, (b) curing or (c) bonding the second layer; (e) creating at least a third layer of the material upon the second layer to define at least a third section of the washer jets (33, 83) after the prior step, the third layer of material being deposited from the printing head; (f) emitting light onto the third layer to perform at least one of: (a) hardening, (b) curing or (c) bonding the third layer; and (g) removing the finished washer jets (33, 83) from the thee-dimensional printing machine which performs the creating and emitting steps, with the layers all being integrally connected to their adjacent layers;
A wheel loader comprising: a work implement including a boom rotatably supported by a vehicular body frame and a bucket rotatably supported by the boom; a pair of left and right front wheels and a pair of left and right rear wheels attached to the vehicular body frame; and an obtaining unit which obtains soil property information on a soil property of an excavation object, characterized by further comprising: a control unit which controls an operation to excavate the excavation object with the bucket of the work implement by determining a trace (L1, L2) of the bucket based on the soil property information obtained by the obtaining unit and moving based on the trace (L1, L2), the bucket into the excavation object in a forward moving direction of the wheel loader. a work implement including a boom rotatably supported by a vehicular body frame and a bucket rotatably supported by the boom; a pair of left and right front wheels and a pair of left and right rear wheels attached to the vehicular body frame; and an obtaining unit which obtains soil property information on a soil property of an excavation object, characterized by further comprising: a control unit which controls an operation to excavate the excavation object with the bucket of the work implement by determining a trace (L1, L2) of the bucket based on the soil property information obtained by the obtaining unit and moving based on the trace (L1, L2), the bucket into the excavation object in a forward moving direction of the wheel loader.
An elevator system monitoring assembly, comprising: a wind detector configured to detect wind in a hoistway and to provide a wind detector output regarding the detected wind; and a processor configured to receive the wind detector output, determine (74, 76, 80) whether at least one characteristic of the detected wind satisfies at least one predetermined criterion (58, 60, 62) corresponding to an effect on the elevator system, and provide an indication (78, 82, 84) of at least one of the satisfied criterion and the effect on the elevator system, characterized in that the wind detector output indicates a frequency of gusts of the detected wind. a wind detector configured to detect wind in a hoistway and to provide a wind detector output regarding the detected wind; and a processor configured to receive the wind detector output, determine (74, 76, 80) whether at least one characteristic of the detected wind satisfies at least one predetermined criterion (58, 60, 62) corresponding to an effect on the elevator system, and provide an indication (78, 82, 84) of at least one of the satisfied criterion and receive the wind detector output, determine (74, 76, 80) whether at least one characteristic of the detected wind satisfies at least one predetermined criterion (58, 60, 62) corresponding to an effect on the elevator system, and provide an indication (78, 82, 84) of at least one of the satisfied criterion and the effect on the elevator system, characterized in that the wind detector output indicates a frequency of gusts of the detected wind.