mhurhangee/ep-ind-claims huggingface dataset:
Intumescent body made of a non-intumescent polymer material providing the form of the body, wherein a difference ΔT between a melting temperature T s and a crystallization temperature T c of the polymer material is in the range of 55 to 70 K, and a transparent coating mass applied to the polymer material, wherein the coating mass has the following composition: 25 to 95 weight % of an aqueous dispersion containing polyurethane or polyacrylat, 0,5 to 10 weight % of an isocyanate or a melamine-formaldehyde and 3 to 15 weight % ammonium polyphosphate as flame retarding agent, wherein together with the coating mass, the polymer material results in an intumescent system in which the coating mass penetrates the interior of the polymer material, which forms a carbon-donor component, during a fire and flame-extinguishing foam is created with the acid of the polymer material, wherein the polymer material provides a share of at least 20 weight % of the carbon in the intumescent system. 25 to 95 weight % of an aqueous dispersion containing polyurethane or polyacrylat, 0,5 to 10 weight % of an isocyanate or a melamine-formaldehyde and 3 to 15 weight % ammonium polyphosphate as flame retarding agent,
An indoor display apparatus of a vehicle, comprising: a vehicle state input unit configured to receive a vehicle state; a front detection unit configured to detect a forward object ahead of a vehicle; a flip-dot display installed at the top of a cockpit module, and configured to implement a pixel by rotating a flip disk; an illumination module installed around the flip-dot display, and configured to illuminate the surface of the flip-dot display; and a control unit configured to receive an operation mode of the vehicle from the vehicle state input unit, receive a distance to the forward object and a direction of the forward object from the front detection unit, and operate the flip-dot display and the illumination module. a vehicle state input unit configured to receive a vehicle state; a front detection unit configured to detect a forward object ahead of a vehicle; a flip-dot display installed at the top of a cockpit module, and configured to implement a pixel by rotating a flip disk; an illumination module installed around the flip-dot display, and configured to illuminate the surface of the flip-dot display; and a control unit configured to receive an operation mode of the vehicle from the vehicle state input unit, receive a distance to the forward object and a direction of the forward object from the front detection unit, and operate the flip-dot display and the illumination module.
Method for detecting an attack on a work environment connected to a communication network, wherein a network connection element is interposed between the work environment and the communication network, and wherein a network monitoring element is connected to the network connection element, having the following steps of: electronically emulating the work environment by means of a network security element connected to the communication network; capturing network traffic at the network security element; comparing the captured network traffic with predefined network traffic; triggering a first attack warning signal by means of the network security element in the event of a discrepancy between the captured network traffic and the predefined network traffic; copying network traffic at the network connection element to the network monitoring element; capturing the network traffic at the network connection element by means of the network monitoring element; and triggering a second attack warning signal by means of the network monitoring element if an anomaly is detected in the network traffic captured at the network connection element; generating a warning message on the basis of the first attack warning signal and the second attack warning signal; wherein the generation of the warning message is also based on further attack warning signals from further work environments of the communication network. electronically emulating the work environment by means of a network security element connected to the communication network; capturing network traffic at the network security element; comparing the captured network traffic with predefined network traffic; triggering a first attack warning signal by means of the network security element in the event of a discrepancy between the captured network traffic and the predefined network traffic; copying network traffic at the network connection element to the network monitoring element; capturing the network traffic at the network connection element by means of the network monitoring element; and triggering a second attack warning signal by means of the network monitoring element if an anomaly is detected in the network traffic captured at the network connection element; generating a warning message on the basis of the first attack warning signal and the second attack warning signal; wherein the generation of the warning message is also based on further attack warning signals from further work environments of the communication network.
An in-ear stimulation device for administering caloric stimulation to the ear canal of a subject during a treatment session, comprising: (a) first and second earpieces configured to be insertable into the ear canals of the subject; (b) at least first and second thermoelectric devices thermally coupled to respective ones of the first and second earpieces; (c) a first heat sink thermally coupled to the first thermoelectric device opposite the first earpiece and a second heat sink thermally coupled to the second thermoelectric device opposite the second earpiece; and (d) a controller comprising a waveform generator in communication with the first and second thermoelectric devices, the waveform generator configured to generate a first control signal to control a first caloric output to the first thermoelectric device and a second control signal to control a second caloric output to the second thermoelectric device; wherein the first and second caloric outputs are actively controlled time-varying waveforms such that an intensity of the first and second caloric outputs is repeatedly adjusted throughout the treatment session in response to active feedback from a first and second temperature sensor mounted on the first and second earpieces, respectively, so that drift of the thermal stimulus from what is intended for delivery which would otherwise occur due to patient contact is minimized. (a) first and second earpieces configured to be insertable into the ear canals of the subject; (b) at least first and second thermoelectric devices thermally coupled to respective ones of the first and second earpieces; (c) a first heat sink thermally coupled to the first thermoelectric device opposite the first earpiece and a second heat sink thermally coupled to the second thermoelectric device opposite the second earpiece; and (d) a controller comprising a waveform generator in communication with the first and second thermoelectric devices, the waveform generator configured to generate a first control signal to control a first caloric output to the first thermoelectric device and a second control signal to control a second caloric output to the second thermoelectric device;
A method for manufacturing a lithium ion secondary battery, the lithium ion secondary battery comprising: a positive electrode; a negative electrode comprising a negative electrode active material layer comprising a graphite; an aprotic electrolyte solution comprising a sulfonate ester having at least two sulfonyl groups; and a packaging material comprising a laminate film involving the positive electrode, the negative electrode and the aprotic electrolyte solution, and the method comprising: enclosing the positive electrode, the negative electrode and the aprotic electrolyte solution in the packaging material to fabricate a lithium ion secondary battery before pre-charge; pre-charging the lithium ion secondary battery before pre-charge to fabricate a lithium ion secondary battery after pre-charge; and opening the enclosure of the packaging material of the lithium ion secondary battery after pre-charge, thereafter vacuum sealing the packaging material, and regularly charging the lithium ion secondary battery after pre-charge, wherein a current for the pre-charge is 0.05 C or larger and 0.25 C or smaller, and a voltage thereof is 3.3 V or higher and 3.5 V or lower. a positive electrode; a negative electrode comprising a negative electrode active material layer comprising a graphite; an aprotic electrolyte solution comprising a sulfonate ester having at least two sulfonyl groups; and a packaging material comprising a laminate film involving the positive electrode, the negative electrode and the aprotic electrolyte solution, and the method comprising: enclosing the positive electrode, the negative electrode and the aprotic electrolyte solution in the packaging material to fabricate a lithium ion secondary battery before pre-charge; pre-charging the lithium ion secondary battery before pre-charge to fabricate a lithium ion secondary battery after pre-charge; and opening the enclosure of the packaging material of the lithium ion secondary battery after pre-charge, thereafter vacuum sealing the packaging material, and regularly charging the lithium ion secondary battery after pre-charge, wherein a current for the pre-charge is 0.05 C or larger and 0.25 C or smaller, and a voltage thereof is 3.3 V or higher and 3.5 V or lower. enclosing the positive electrode, the negative electrode and the aprotic electrolyte solution in the packaging material to fabricate a lithium ion secondary battery before pre-charge; pre-charging the lithium ion secondary battery before pre-charge to fabricate a lithium ion secondary battery after pre-charge; and opening the enclosure of the packaging material of the lithium ion secondary battery after pre-charge, thereafter vacuum sealing the packaging material, and regularly charging the lithium ion secondary battery after pre-charge, wherein a current for the pre-charge is 0.05 C or larger and 0.25 C or smaller, and a voltage thereof is 3.3 V or higher and 3.5 V or lower.
An installation for treating containers, the installation comprising at least: a first platform (101, 102, 103, 104, 105) having at least a first holder device comprising a first pair of jaws; and a second platform (101, 102, 103, 104, 105) having at least a second holder device comprising a second pair of jaws; each pair of jaws comprising a stationary jaw (10, 210), a movable jaw (11, 211) movable between a closed position for holding a container and an open position for releasing the container, and a resilient element (16, 216) arranged to urge the movable jaw towards the closed position, the installation being characterized in that the two pairs of jaws are provided with co-operation means (21, 22, 30, 33, 221, 232, 240) to enable them, in operation, to transfer a container from one platform to another by co-operation between the pairs of jaws, the co-operation means being configured so that one of the pairs of jaws can act on the movement of the movable jaw of the other pair of jaws relative to the corresponding stationary jaw. a first platform (101, 102, 103, 104, 105) having at least a first holder device comprising a first pair of jaws; and a second platform (101, 102, 103, 104, 105) having at least a second holder device comprising a second pair of jaws;
A powder container configured to contain powder to be used in an image forming apparatus, the powder container comprising: a first end and a second end, the second end being disposed in a side opposite to the first end, wherein the second end has an opening; a gear provided on the second end and receiving a driving force to rotate the container; a nozzle receiver including a nozzle receiving hole arranged on the second end side of the container and configured to allow a transport nozzle having a powder receiving inlet to be inserted therein, and a supply port arranged in at least a part of the nozzle receiver and configured to supply the powder in the container to the powder receiving inlet; and a shutter supported by the nozzle receiver and configured to open and close the nozzle receiving hole by sliding in response to insertion of the transport nozzle into the nozzle receiver, wherein the powder receiving inlet of the transport nozzle is configured to communicate with the supply port at a position toward the container over the gear in an axial direction of the container, wherein an inner diameter of the container where the gear is disposed is smaller than an inner diameter of the container at the center in the longitudinal direction of the container which is between the second end and the first end, wherein the container includes on an end face of the second end at least one lift-up section (138e, 138f) for lifting up powder, wherein the at least one lift-up section (138e, 138f) is arranged at a position facing the powder receiving inlet when inserting the transport nozzle. a first end and a second end, the second end being disposed in a side opposite to the first end, wherein the second end has an opening; a gear provided on the second end and receiving a driving force to rotate the container; a nozzle receiver including a nozzle receiving hole arranged on the second end side of the container and configured to allow a transport nozzle having a powder receiving inlet to be inserted therein, and a supply port arranged in at least a part of the nozzle receiver and configured to supply the powder in the container to the powder receiving inlet; and a shutter supported by the nozzle receiver and configured to open and close the nozzle receiving hole by sliding in response to insertion of the transport nozzle into the nozzle receiver, wherein the powder receiving inlet of the transport nozzle is configured to communicate with the supply port at a position toward the container over the gear in an axial direction of the container, wherein an inner diameter of the container where the gear is disposed is smaller than an inner diameter of the container at the center in the longitudinal direction of the container which is between the second end and the first end, wherein the container includes on an end face of the second end at least one lift-up section (138e, 138f) for lifting up powder, wherein the at least one lift-up section (138e, 138f) is arranged at a position facing the powder receiving inlet when inserting the transport nozzle.
A method for transmitting buffer status report of a terminal in a wireless communication system, the method comprising: checking, when allocating uplink resource for new data transmission, whether first buffer status report triggered but not cancelled exists; generating, when the first buffer status report exists, uplink data including the first buffer status report; checking whether second buffer status report triggered but not cancelled exist except for the buffer status report included in the uplink data; and determining whether to cancel the second buffer status report depending on whether the first buffer status report is a regular buffer status report or periodic buffer status report. checking, when allocating uplink resource for new data transmission, whether first buffer status report triggered but not cancelled exists; generating, when the first buffer status report exists, uplink data including the first buffer status report; checking whether second buffer status report triggered but not cancelled exist except for the buffer status report included in the uplink data; and determining whether to cancel the second buffer status report depending on whether the first buffer status report is a regular buffer status report or periodic buffer status report.
A method for collecting algae from an algae containing aqueous solution comprising the steps of (i) first, providing an organic coagulant to said solution and mixing said solution, and (ii) subsequently, providing inert inorganic clay material to said solution after step (i) and mixing said solution to form coagulated algae, and (iii) agitating the resulting solution after step (ii) to form flocculated algae, and (iv) subsequently, separating and collecting the flocculated algae from said solution. (i) first, providing an organic coagulant to said solution and mixing said solution, and (ii) subsequently, providing inert inorganic clay material to said solution after step (i) and mixing said solution to form coagulated algae, and (iii) agitating the resulting solution after step (ii) to form flocculated algae, and (iv) subsequently, separating and collecting the flocculated algae from said solution.
A method of manufacturing an optically variable device, the method comprising: providing a substrate with an first adhesive layer thereon; applying a first magnetic field to the first adhesive layer and providing magnetic flakes absent a liquid carrier or binder onto the first adhesive layer in the presence of the first magnetic field so that the magnetic flakes oriented by the first magnetic field adhere to the first adhesive layer, coating the first adhesive layer and the magnetic flakes adhered thereto with a coating layer; and curing the coating layer, so as to substantially maintain orientation of the magnetic flakes, characterised in that the first magnetic field is created by a permanent magnet, said permanent magnet providing a visual appearance of a 3D object on or within the optically variable device. providing a substrate with an first adhesive layer thereon; applying a first magnetic field to the first adhesive layer and providing magnetic flakes absent a liquid carrier or binder onto the first adhesive layer in the presence of the first magnetic field so that the magnetic flakes oriented by the first magnetic field adhere to the first adhesive layer, coating the first adhesive layer and the magnetic flakes adhered thereto with a coating layer; and curing the coating layer, so as to substantially maintain orientation of the magnetic flakes, characterised in that the first magnetic field is created by a permanent magnet, said permanent magnet providing a visual appearance of a 3D object on or within the optically variable device.
An engine system comprising: a variable compression device (6, 7, 8) including a fluid chamber in which a piston rod is moved in a direction to increase a compression ratio by a pressurized working fluid being supplied thereto, an upper end of the piston rod being connected to a piston and a lower end of the piston rod being connected to a crosshead pin of a cross head such that a connecting rod is rotatable; a detection device that outputs a signal including positional information of the piston; and a position acquisition device that acquires a position of the piston based on the signal, characterized in that at least part of the detection device is provided in a cylinder liner inside which the piston slides, and the detection device is configured to detect a position in a sliding direction of the piston, and that the position acquisition device controls a plunger pump, a supply pump, and a relief valve, adjusts an amount of a working oil in the fluid chamber, thereby changing a position of the piston rod in a sliding direction of the piston rod and changing the compression ratio. a variable compression device (6, 7, 8) including a fluid chamber in which a piston rod is moved in a direction to increase a compression ratio by a pressurized working fluid being supplied thereto, an upper end of the piston rod being connected to a piston and a lower end of the piston rod being connected to a crosshead pin of a cross head such that a connecting rod is rotatable; a detection device that outputs a signal including positional information of the piston; and a position acquisition device that acquires a position of the piston based on the signal, characterized in that at least part of the detection device is provided in a cylinder liner inside which the piston slides, and the detection device is configured to detect a position in a sliding direction of the piston, and that the position acquisition device controls a plunger pump, a supply pump, and a relief valve, adjusts an amount of a working oil in the fluid chamber, thereby changing a position of the piston rod in a sliding direction of the piston rod and changing the compression ratio.
A single-use applicator system for inserting a transcutaneous sensor into a host, the applicator system comprising: a sensor configured for transcutaneous placement through a skin of a host; a needle configured for inserting the sensor into the host, wherein the sensor is disposed within the needle prior to insertion into the host; a housing adapted for placement adjacent to the host's skin; and an applicator configured for inserting the needle and the sensor into the skin of the host along an axis of insertion, wherein the needle and the sensor are disposed within the applicator prior to insertion of the sensor; wherein the applicator is configured to insert the needle and the sensor into the skin of the host, to leave the sensor transcutaneously placed within the host, and to irreversibly retract the needle from the skin of the host into the applicator, and wherein the applicator is configured to releasably mate with the housing, characterised in that the sensor comprises electrodes which share the same central axis or electrodes and a membrane system which all share the same central axis, wherein the central axis is the axis of insertion. a sensor configured for transcutaneous placement through a skin of a host; a needle configured for inserting the sensor into the host, wherein the sensor is disposed within the needle prior to insertion into the host; a housing adapted for placement adjacent to the host's skin; and an applicator configured for inserting the needle and the sensor into the skin of the host along an axis of insertion, wherein the needle and the sensor are disposed within the applicator prior to insertion of the sensor; wherein the applicator is configured to insert the needle and the sensor into the skin of the host, to leave the sensor transcutaneously placed within the host, and to irreversibly retract the needle from the skin of the host into the applicator, and wherein the applicator is configured to releasably mate with the housing, characterised in that the sensor comprises electrodes which share the same central axis or electrodes and a membrane system which all share the same central axis, wherein the central axis is the axis of insertion.