mhurhangee/ep-ind-claims huggingface dataset:
Method of recovering heat from bottom ash of a combustion process, the process comprising at least • feeding fuel and combustion air into a furnace for combusting the fuel for generating heat energy to produce steam or hot water in a boiler arrangement so that flue gases and bottom ash are formed, • discharging the bottom ash from the furnace, • recovering heat from the bottom ash discharged from the furnace to a bottom ash cooling water circuit (42, 42') for the purpose of utilizing the recovered heat for preheating the combustion air with a heat exchanger (52, 52'), the method being characterized in - collecting heat from the flue gases and heating the combustion air in a combustion air preheater and - preheating combustion air using heat recovered from bottom ash is carried out before heating the combustion air by the heat collected from the flue gases in the combustion air preheater. • feeding fuel and combustion air into a furnace for combusting the fuel for generating heat energy to produce steam or hot water in a boiler arrangement so that flue gases and bottom ash are formed, • discharging the bottom ash from the furnace, • recovering heat from the bottom ash discharged from the furnace to a bottom ash cooling water circuit (42, 42') for the purpose of utilizing the recovered heat for preheating the combustion air with a heat exchanger (52, 52'), the method being characterized in - collecting heat from the flue gases and heating the combustion air in a combustion air preheater and - preheating combustion air using heat recovered from bottom ash is carried out before heating the combustion air by the heat collected from the flue gases in the combustion air preheater.
Electricity meter for measuring a current of phase I phn and a voltage of phase U phn that are consumed by a user installation on at least one phase n of an electrical distribution network, the meter being of the type comprising a metrological part, the potential reference of which is constituted by said phase n, said metrological part comprising an uninsulated current sensor ( R shunt) in series on the phase conductor n to allow measurement of the phase current I phn on the basis of a measurement of the potential difference V mes at the terminals of said sensor, a break contactor in series with said current sensor and a monitoring device capable of delivering a measurement V aval − amont phn representative of the potential difference between the phase conductor downstream of the break contactor and the phase conductor upstream of the metrological part, characterized in that the metrological part moreover comprises a first voltage divider (R4, R5) receiving, at the input, said phase voltage U phn and delivering a measurement of a potential difference V amont phn between a first potential provided by the phase conductor and a second potential, in that the monitoring device comprises a second voltage divider (R1, R2) connected in parallel on the series assembly formed by the current sensor ( R shunt) and the break contactor and allowing said measurement V aval − amont phn, and a resistor situated between the phase conductor and the second potential downstream of the break contactor, and in that, the user installation comprising a main circuit breaker with a resistor R K2 in series with a load having a resistance R charge, the meter comprises means (40, 440) for detecting, when the break contactor and the main circuit breaker are in open positions, the transition of the measurement V aval − amont phn between a first value equal to a 1 × V amont phn when the main circuit breaker is open and a second value equal to a 2 × V amont phn when the main circuit breaker is closed, the transition of the measurement V aval − amont phn representative of a positional transition of the main circuit breaker from a closed state to an open state and of a positional transition of the main circuit breaker from an open state to a closed state; in that a 1 = R 1 R 1 + R 2 + R 3 × R aval R 3 + R aval × R 4 + R 5 R 4, where R aval = R K 2 + R charge; and in that a 2 = R 1 R 1 + R 2 + R 3 × R aval R 3 + R aval × R 4 + R 5 R 4, where R aval = R charge.
An air burst system for cleaning submerged screen intakes, comprising: an onshore air system; a submerged screen intake; and a length of air supply piping fluidly connecting the onshore air system and the submerged screen intake, said length of air supply piping including a pressure sensor for monitoring pressure within the length of air supply piping, wherein the onshore air system includes a burst line for introducing one or more pulses of pressurized air to the length of air supply piping for cleaning debris from the submerged screen intake and a purge line for introducing purge air to the length of air supply piping for purging water from the length of air supply piping, the purge line being fluidly connected to the submerged screen intake,, wherein the onshore air system is configured to receive pressure data from the pressure sensor indicating that a pressure reading in the length of air supply piping exceeds a maximum depth pressure of the length of air supply piping and, in response to this indication, commencing delivery of one or more pulses of pressurized air to the length of air supply piping. an onshore air system; a submerged screen intake; and a length of air supply piping fluidly connecting the onshore air system and the submerged screen intake, said length of air supply piping including a pressure sensor for monitoring pressure within the length of air supply piping, wherein the onshore air system includes a burst line for introducing one or more pulses of pressurized air to the length of air supply piping for cleaning debris from the submerged screen intake and a purge line for introducing purge air to the length of air supply piping for purging water from the length of air supply piping, the purge line being fluidly connected to the submerged screen intake,, wherein the onshore air system is configured to receive pressure data from the pressure sensor indicating that a pressure reading in the length of air supply piping exceeds a maximum depth pressure of the length of air supply piping and, in response to this indication, commencing delivery of one or more pulses of pressurized air to the length of air supply piping.
Use of a damping resistor (70, 81, 101, 121, 141, 161, 181) in a snubber circuit, the said damping resistor comprising a junction field effect transistor (71, 92, 112, 132, 152, 172, 192, 210) with a source (72, 93, 113, 133, 211) and a gate (74, 94, 114, 134, 212) permanently connected exhibiting a non-linear resistive and current limiting function in one direction of current and voltage, and minimal impedance in the other direction of current and voltage.
An input device for a robotic catheter system, comprising: a sheath handle comprising a first shaft, the first shaft defining a passageway therein; and a catheter handle comprising a second shaft, the second shaft at least partially disposed within the passageway defined by the first shaft; wherein each of the sheath handle and the catheter handle is coupled to a plurality of respective guide wires (130, 132), the guide wires (130, 132) configured such that movement of the handles (102, 104) causes a corresponding tension response in one or more of the plurality of guide wires (130, 132), further comprising one or more sensors (138, 140) configured to monitor a force acting on the plurality of guide wires (130, 132), and to generate a signal representative of the force, wherein the sheath handle and the catheter handle each includes one or more wire ducts or channels (150a-d, 152a-d) in which the one or more respective guide wires (130, 132) are disposed. a sheath handle comprising a first shaft, the first shaft defining a passageway therein; and a catheter handle comprising a second shaft, the second shaft at least partially disposed within the passageway defined by the first shaft; wherein each of the sheath handle and the catheter handle is coupled to a plurality of respective guide wires (130, 132), the guide wires (130, 132) configured such that movement of the handles (102, 104) causes a corresponding tension response in one or more of the plurality of guide wires (130, 132), further comprising one or more sensors (138, 140) configured to monitor a force acting on the plurality of guide wires (130, 132), and to generate a signal representative of the force, wherein the sheath handle and the catheter handle each includes one or more wire ducts or channels (150a-d, 152a-d) in which the one or more respective guide wires (130, 132) are disposed.
A prepreg comprising: a fiber-reinforced substrate composed of a carbon fiber; an epoxy resin composition with which the fiber-reinforced substrate is partially or wholly impregnated, wherein the epoxy resin composition includes an epoxy resin containing epoxy resin having a glycidyl amine structure, dicyandiamide, and an aromatic amine represented by the following Formula, wherein the aromatic amine has at least one substituent other than a hydrogen atom in an ortho position with respect to an amino group, and, in Chemical Formula, R 1 to R 8 each independently represent any of a hydrogen atom, an aliphatic substituent having 1 to 6 carbon atoms, an aromatic substituent, and a halogen atom, at least one of the substituents is the aliphatic substituent having 1 to 6 carbon atoms, and X represents any of -CH 2 -, -CH(CH 3)-, -C(CH 3) 2 -, -S-, -O-, -CO-, -CONH-, and -C(=O)-; wherein the blending amount of the aromatic amine in the epoxy resin is from 3 to 20 parts by mass with respect to 100 parts by mass of the epoxy resin; and wherein the blending amount of the epoxy resin having the glycidyl amine structure is from 40 to 85 parts by mass with respect to 100 parts by mass of the total epoxy resin. a fiber-reinforced substrate composed of a carbon fiber; an epoxy resin composition with which the fiber-reinforced substrate is partially or wholly impregnated, wherein the epoxy resin composition includes an epoxy resin containing epoxy resin having a glycidyl amine structure, dicyandiamide, and an aromatic amine represented by the following Formula, wherein the aromatic amine has at least one substituent other than a hydrogen atom in an ortho position with respect to an amino group, and, in Chemical Formula, R 1 to R 8 each independently represent any of a hydrogen atom, an aliphatic substituent having 1 to 6 carbon atoms, an aromatic substituent, and a halogen atom, at least one of the substituents is the aliphatic substituent having 1 to 6 carbon atoms, and X represents any of -CH 2 -, -CH(CH 3)-, -C(CH 3) 2 -, -S-, -O-, -CO-, -CONH-, and -C(=O)-; wherein the blending amount of the aromatic amine in the epoxy resin is from 3 to 20 parts by mass with respect to 100 parts by mass of the epoxy resin; and wherein the blending amount of the epoxy resin having the glycidyl amine structure is from 40 to 85 parts by mass with respect to 100 parts by mass of the total epoxy resin.
A luminaire kit of parts for assembling a luminaire, the kit of parts comprising: a set of light sources (107a-b, 212a-b, 500, 704, 802, 810, 902, 1002, 1202, 1303a-c), a set of light out-coupling devices (105a-b), and a light guiding element (101, 201, 300, 400, 600, 701, 801, 901, 1001, 1201, 1301) having a first type of openings (103a-c, 1302a-c) configured to receive at least a subset of light sources of said set of light sources and to direct light into the light guiding element, characterized in that the light guiding element also has a second type of openings (104a-b, 1304a-b) configured to receive at least a subset of light out-coupling devices of the set of light out-coupling devices and to direct light out of the light guiding element via the light out-coupling devices. a set of light sources (107a-b, 212a-b, 500, 704, 802, 810, 902, 1002, 1202, 1303a-c), a set of light out-coupling devices (105a-b), and a light guiding element (101, 201, 300, 400, 600, 701, 801, 901, 1001, 1201, 1301) having a first type of openings (103a-c, 1302a-c) configured to receive at least a subset of light sources of said set of light sources and to direct light into the light guiding element, characterized in that the light guiding element also has a second type of openings (104a-b, 1304a-b) configured to receive at least a subset of light out-coupling devices of the set of light out-coupling devices and to direct light out of the light guiding element via the light out-coupling devices.
A method for set point adjustment in a building control system, comprising the steps of: sensing an object at a first distance from an active sensor, whereby the set point adjustment is initiated; sensing a movement of the object from the first distance to a second distance (312, 412) from the active sensor; and adjusting the set point from a first set point to a second set point in response to sensing the movement of the object, wherein the second set point depends on the first set point and an offset between the first distance and the second distance (312, 412). sensing an object at a first distance from an active sensor, whereby the set point adjustment is initiated; sensing a movement of the object from the first distance to a second distance (312, 412) from the active sensor; and adjusting the set point from a first set point to a second set point in response to sensing the movement of the object, wherein the second set point depends on the first set point and an offset between the first distance and the second distance (312, 412).
A mechanical lug for securing electrical conductors, the mechanical lug comprising: a main body having an inner flange and an overlapping outer flange, wherein the inner flange has a horizontal member and an interlocking member with angled pockets, wherein the angled pockets are defined by open sidewalls in the inner flange, and the outer flange has hooks with tapered faces, wherein the outer flange overlaps the inner flange with the hooks of the outer flange positioned in the angled pockets of the interlocking member of the inner flange to form a dovetail interlock; and a mounting tongue extending from the main body. a main body having an inner flange and an overlapping outer flange, wherein the inner flange has a horizontal member and an interlocking member with angled pockets, wherein the angled pockets are defined by open sidewalls in the inner flange, and the outer flange has hooks with tapered faces, wherein the outer flange overlaps the inner flange with the hooks of the outer flange positioned in the angled pockets of the interlocking member of the inner flange to form a dovetail interlock; and a mounting tongue extending from the main body.
An earth-boring tool, comprising: a body; a plurality of blades protruding from the body, each blade extending from a gage region of the earth-boring tool to at least a nose region of the earth-boring tool; a first rotatable cutting structure assembly coupled to the body and comprising: a first leg extending from the body of the earth-boring tool; and a first rotatable cutting structure rotatably coupled to the first leg, the first rotatable cutting structure comprising a first cutting profile; a second rotatable cutting structure assembly coupled to the body and comprising: a second leg extending from the body of the earth-boring tool; and a second rotatable cutting structure rotatably coupled to the second leg, wherein a second cutting profile of the second rotatable cutting structure extends from the gage region of the earth-boring tool and only to a location proximate an innermost boundary of the nose region of the earth-boring tool, characterized in that: the first cutting profile of the first rotatable cutting structure extends from the gage region of the earth-boring tool and at least partially through a cone region of the earth-boring tool. a body; a plurality of blades protruding from the body, each blade extending from a gage region of the earth-boring tool to at least a nose region of the earth-boring tool; a first rotatable cutting structure assembly coupled to the body and comprising: a first leg extending from the body of the earth-boring tool; and a first rotatable cutting structure rotatably coupled to the first leg, the first rotatable cutting structure comprising a first cutting profile; a first leg extending from the body of the earth-boring tool; and a first rotatable cutting structure rotatably coupled to the first leg, the first rotatable cutting structure comprising a first cutting profile; a second rotatable cutting structure assembly coupled to the body and comprising: a second leg extending from the body of the earth-boring tool; and a second rotatable cutting structure rotatably coupled to the second leg, wherein a second cutting profile of the second rotatable cutting structure extends from the gage region of the earth-boring tool and only to a location proximate an innermost boundary of the nose region of the earth-boring tool, a second leg extending from the body of the earth-boring tool; and a second rotatable cutting structure rotatably coupled to the second leg, wherein a second cutting profile of the second rotatable cutting structure extends from the gage region of the earth-boring tool and only to a location proximate an innermost boundary of the nose region of the earth-boring tool, characterized in that: the first cutting profile of the first rotatable cutting structure extends from the gage region of the earth-boring tool and at least partially through a cone region of the earth-boring tool.
An apparatus, comprising: a first Control And Provisioning of Wireless Access Points, CAPWAP, control module implemented in at least one of a memory or a processor device, the first CAPWAP control module configured to be designated as a backup control module for a wireless access point during a first time period, the first CAPWAP control module configured to receive state information associated with the wireless access point during the first time period and from a second CAPWAP control module designated as a primary control module for the wireless access point during the first time period, the first CAPWAP control module configured to be automatically designated as the primary control module during a second time period after the first time period and in response to the second CAPWAP control module not operating according to at least one predefined criterion, and wherein the first CAPWAP control module is configured to send to the wireless access point, during the second time period, a control packet including a CAPWAP header portion specific to a type of the control packet and not specific to a CAPWAP binding. a first Control And Provisioning of Wireless Access Points, CAPWAP, control module implemented in at least one of a memory or a processor device, the first CAPWAP control module configured to be designated as a backup control module for a wireless access point during a first time period, the first CAPWAP control module configured to receive state information associated with the wireless access point during the first time period and from a second CAPWAP control module designated as a primary control module for the wireless access point during the first time period, the first CAPWAP control module configured to be automatically designated as the primary control module during a second time period after the first time period and in response to the second CAPWAP control module not operating according to at least one predefined criterion, and wherein the first CAPWAP control module is configured to send to the wireless access point, during the second time period, a control packet including a CAPWAP header portion specific to a type of the control packet and not specific to a CAPWAP binding.
The method for detection of decreased susceptibility for anticancer adjuvant chemotherapy with cytostatic from the group of oxazaphosphorines and antibiotic from the group of anthracyclines in breast cancer patients, characterized in that the evaluation of PIP gene expression is performed in the sample of tissue material taken from patient from primary tumour of invasive ductal breast cancer in the isolated total RNA with the use of real-time PCR method, wherein the statistically significant lower expression of PIP mRNA indicates decreased susceptibility for anticancer adjuvant chemotherapy with cytostatic from the group of oxazaphosphorines and antibiotic from the group of anthracyclines.
Holographic medium comprising a protective layer and a photopolymer film which is bonded to the protective layer and contains polyurethane matrix polymers, acrylate writing monomers and photoinitiators, characterised in that the protective layer comprises or consists of polyurethane polymers and/or polychloroprene, the protective layer is impermeable to the constituents of the photopolymer film, is optically clear and is transparent to electromagnetic radiation having a wavelength in the range of from 350 to 800 nm, the protective layer comprises or consists of high molecular weight, uncrosslinked polymers or three-dimensional network structures of high network density, wherein the high molecular weight, uncrosslinked polymers have a mean molar mass of > 7500 g/mol and wherein the three-dimensional network structures of high network density are obtainable by reacting components that have number-average equivalent molar masses of < 1500 g/mol.
System comprising several identical implants for fixing a prosthetic equipment, the said implants having a screw type external configuration and arranged in a straight line, characterised in that the said implants are connected to each other in succession by their front parts and rear parts, on a temporary basis, and in that every implant has a longitudinal inner cavity with a triangular section that is completely penetrated to constitute the casing of a pre-positioning element configured according to a triangular indentation with a pointed end part, and in that the contact between the implants by their front and rear sides with two successive implants respectively is a temporary contact, and in that the multiple implants constitute an assembled unit that is designed to be implanted in a charging block related to the insertion ancillary.
A system (100, 200) for pacing a heart having a cardiac conduction abnormality, comprising: a sensing circuit configured to sense an intrinsic His bundle activation of a first His-bundle portion; an electrostimulation circuit configured to generate a His bundle pacing pulse for delivery at or near the His bundle; and a control circuit, coupled to the electrostimulation circuit and the sensing circuit, configured to control the electrostimulation circuit to generate and deliver the HBP pulse according to one or more pacing parameters in response to the sensed intrinsic His bundle; wherein the control circuit includes a timing circuit configured to time the delivery of the HBP pulse within a tissue refractory period of the first His-bundle portion subsequent to the intrinsic His bundle activation, and wherein the sensing circuit is configured to sense an evoked His bundle activation of a second His-bundle portion in response to the delivery of the HBP pulse. a sensing circuit configured to sense an intrinsic His bundle activation of a first His-bundle portion; an electrostimulation circuit configured to generate a His bundle pacing pulse for delivery at or near the His bundle; and a control circuit, coupled to the electrostimulation circuit and the sensing circuit, configured to control the electrostimulation circuit to generate and deliver the HBP pulse according to one or more pacing parameters in response to the sensed intrinsic His bundle; wherein the control circuit includes a timing circuit configured to time the delivery of the HBP pulse within a tissue refractory period of the first His-bundle portion subsequent to the intrinsic His bundle activation, and wherein the sensing circuit is configured to sense an evoked His bundle activation of a second His-bundle portion in response to the delivery of the HBP pulse.