mhurhangee/ep-ind-claims huggingface dataset:
Method for producing moulded hollow bodies from an elastomer material, wherein the method comprises at least the following operative steps, specifically: a) pushing a prefabricated blank onto a mandrel, wherein the mandrel has at least one region with a wall which is configured to be air-permeable, and the mandrel has at least one air chamber which is operatively connected to the at least one region with the air-permeable wall (2, 2A); b) incorporating the mandrel having the blank pushed thereon into an autoclave known per se; c) impinging the autoclave with pressure and temperature, wherein air which is enclosed between the blank and the mandrel is pressed through the regions with the air-permeable wall (2, 2A) into the respective air chamber, while fully vulcanizing the blanks in the process; d) depressurizing the autoclave, and cooling; e) retrieving the mandrel having the completely vulcanized and moulded hollow body; f 2) stripping the hollow body from the mandrel, characterized in that the at least one region with the air-permeable wall (2, 2A) is configured as a segment made from a porous sintering material. a) pushing a prefabricated blank onto a mandrel, wherein the mandrel has at least one region with a wall which is configured to be air-permeable, and the mandrel has at least one air chamber which is operatively connected to the at least one region with the air-permeable wall (2, 2A); b) incorporating the mandrel having the blank pushed thereon into an autoclave known per se; c) impinging the autoclave with pressure and temperature, wherein air which is enclosed between the blank and the mandrel is pressed through the regions with the air-permeable wall (2, 2A) into the respective air chamber, while fully vulcanizing the blanks in the process; d) depressurizing the autoclave, and cooling; e) retrieving the mandrel having the completely vulcanized and moulded hollow body; f 2) stripping the hollow body from the mandrel, characterized in that the at least one region with the air-permeable wall (2, 2A) is configured as a segment made from a porous sintering material.
A method of notifying a second electronic device of a message received by a first electronic device, the method comprising: enabling, by the first electronic device, wireless communication with the second electronic device, which is mutually registered with the first electronic device; and receiving, by the first electronic device, a message from an external device, while wireless communication with the second electronic device is enabled; characterized in that the method further comprises: notifying, by the first electronic device, the second electronic device of the receiving of the message, based on detecting no user input to the first electronic device for a predetermined period of time and based on information, provided by the second electronic device, indicating a user is within range of a sensor of the second electronic device, the notifying comprising transmitting, to the second electronic device, via wireless communication, a notification of the receiving of the message for causing the second electronic device to indicate, at the second electronic device, the notification. enabling, by the first electronic device, wireless communication with the second electronic device, which is mutually registered with the first electronic device; and receiving, by the first electronic device, a message from an external device, while wireless communication with the second electronic device is enabled; characterized in that the method further comprises: notifying, by the first electronic device, the second electronic device of the receiving of the message, based on detecting no user input to the first electronic device for a predetermined period of time and based on information, provided by the second electronic device, indicating a user is within range of a sensor of the second electronic device, the notifying comprising transmitting, to the second electronic device, via wireless communication, a notification of the receiving of the message for causing the second electronic device to indicate, at the second electronic device, the notification.
Electrically operated slicing machine for cutting off slices from an, in particular, elongate item to be cut, preferably foodstuff, having a cutting device, wherein the cutting device comprises a rotating circular blade driven by an electric blade motor, and having a carriage, which can be moved parallel to the circular blade, for receiving and for moving the item to be cut, and having a blade monitoring device for monitoring the condition of the circular blade, characterized in that the blade monitoring device has a current measuring apparatus for measuring the blade motor current (I 100, I 101, I 102, I 103, I 104, I 105), and in that the slicing machine, preferably the blade monitoring device, has a control unit which is designed to ascertain from the currently measured blade motor current (I 100, I 101, I 102, I 103,I 104, I 105) and the temporal profile thereof a cutting characteristic value, in particular a soiling characteristic value (K V) and/or a wear characteristic value (K A) and/or a blade sharpness characteristic value (K S), and in that the slicing machine, preferably the blade monitoring device, comprises a non-volatile data memory, and in that the control unit is designed to ascertain an integral value for a net current of the blade motor, starting from completion of a previously expired blade sharpening programme, from the currently measured blade motor current (I 100, I 101, I 102, I 103,I 104, I 105) and the temporal profile thereof and to store it in the non-volatile data memory, wherein the intermediate result derived is a measure of the cutting characteristic value.
A plant extract-containing polyethylene terephthalate fiber, wherein: The plant extract-containing polyethylene terephthalate fiber consists of the following raw materials: 280-300 parts of polyethylene terephthalate pellets, 3-7 parts of calcium carbide powder, 2-6 parts of liuhuan stone powder, 2-5 parts of halloysite powder, 10-12 parts of plant extract functional additive, 8 parts of allyl glycidyl ether, 2-6 parts of organic acid salt, 0.2 parts of chromium sulfate, 4-8 parts of dispersant, 9-12 parts of surface-active phospholipid, 8 parts of plasticized starch, 10 parts of chitosan, 10 parts of wetting agent, 24 parts of CMC-Na and 12 parts of antistatic agent.
A set square for manual ceramic cutters, the set square comprising a ruler intended to be rotatably mounted and secured to a base of a manual ceramic cutter, defining various angles; a stop that is mounted on the ruler and can be moved longitudinally and a tightening element for securing the lateral stop to the ruler; characterized in that the cross-section of the ruler comprises two oblique planes (11, 12) that converge towards an intermediate surface provided with a longitudinal recess having a generally T-shaped cross section, for mounting the tightening element; the lateral stop comprises two oblique planes (21, 22) facing the ruler and having the same slope as the oblique planes (11, 12) of the ruler, and which converge towards an intermediate surface that has an opening to mount the tightening element.
A method comprising: establishing, by a server, a valid command window comprising a plurality of sequence numbers a client is allowed to use between and including a sequence number at the start of the valid command window and a sequence number at the end of the valid command window; receiving, at the server, a file system command that consumes at least one server resource, the file system command including an associated sequence number; determining whether the associated sequence number is within the valid command window; processing the file system command when it is determined that the associated sequence number is within the valid command window; granting the client at least one additional credit, wherein the at least one additional credit enables the client to consume at least one additional server resource using a subsequent file system command; and when the associated sequence number is equal to the sequence number at the start of the valid command window, increasing both the sequence number at the start of the valid command window and the sequence number at the end of the valid command window by an amount equal to the at least one additional credit; and when the associated sequence number is greater than the sequence number at the start of the valid command window, increasing the sequence number at the end of the valid command window by an amount equal to the at least one additional credit without increasing the sequence number at the start of the valid command window. establishing, by a server, a valid command window comprising a plurality of sequence numbers a client is allowed to use between and including a sequence number at the start of the valid command window and a sequence number at the end of the valid command window; receiving, at the server, a file system command that consumes at least one server resource, the file system command including an associated sequence number; determining whether the associated sequence number is within the valid command window; processing the file system command when it is determined that the associated sequence number is within the valid command window; granting the client at least one additional credit, wherein the at least one additional credit enables the client to consume at least one additional server resource using a subsequent file system command; and when the associated sequence number is equal to the sequence number at the start of the valid command window, increasing both the sequence number at the start of the valid command window and the sequence number at the end of the valid command window by an amount equal to the at least one additional credit; and when the associated sequence number is greater than the sequence number at the start of the valid command window, increasing the sequence number at the end of the valid command window by an amount equal to the at least one additional credit without increasing the sequence number at the start of the valid command window.
A method for controlling the quality of an initial RR series consisting of a plurality of samples (RR i) which are respectively a function of time intervals (δti) which separate two successive heartbeats, method implemented by electronic processing means and comprising a step of re-sampling of the RR series so as to obtain a resampled RR series, characterized in said method further comprises a step of automatic control of the quality of the RR series by automatically calculating at least the mathematical norm value (NORME), in a sliding window, of the resampled RR series, said mathematical norm value being given by the following formula: NORME = ∑ i = 1 N RR i − 1 N ∑ i = 1 N RR i 2 where N is the number of RR i samples in said window.
An electronic device (101, 201), comprising: a circuit board; a battery (296, 720); a charging circuitry for charging the battery (296, 720); a first sensor for measuring a first temperature corresponding to a first area of the battery (296, 720); a second sensor for measuring a second temperature corresponding to a second area of the battery (296, 720), wherein the first sensor and the second sensor are disposed in the vicinity of the battery (296, 720) for determining a temperature of the battery (296, 720); and a processor coupled to the circuit board, battery (296, 720), charging circuitry, the first sensor and the second sensor, wherein the processor is configured to: acquire the first temperature measured by the first sensor and the second temperature measured by the second sensor, and lower a charging current of the battery (296, 720) using the charging circuitry based on a difference between the first temperature and the second temperature satisfying a designated condition, wherein the designated condition is the difference being larger than a designated value. a circuit board; a battery (296, 720); a charging circuitry for charging the battery (296, 720); a first sensor for measuring a first temperature corresponding to a first area of the battery (296, 720); a second sensor for measuring a second temperature corresponding to a second area of the battery (296, 720), wherein the first sensor and the second sensor are disposed in the vicinity of the battery (296, 720) for determining a temperature of the battery (296, 720); and a processor coupled to the circuit board, battery (296, 720), charging circuitry, the first sensor and the second sensor, wherein the processor is configured to: acquire the first temperature measured by the first sensor and the second temperature measured by the second sensor, and lower a charging current of the battery (296, 720) using the charging circuitry based on a difference between the first temperature and the second temperature satisfying a designated condition, wherein the designated condition is the difference being larger than a designated value. acquire the first temperature measured by the first sensor and the second temperature measured by the second sensor, and lower a charging current of the battery (296, 720) using the charging circuitry based on a difference between the first temperature and the second temperature satisfying a designated condition, wherein the designated condition is the difference being larger than a designated value.
A disk brake system, comprising: a pressure plate; a stator friction disk having a stator density, located axially between the pressure plate and an end plate; a rotor friction disk having a rotor density, located axially between the pressure plate and the end plate, wherein the rotor friction disk and the stator friction disk are annular disks, and the rotor friction disk and the stator friction disk are adjacent to one another and disposed coaxially, wherein the stator friction disk is a split friction disk comprising a split friction disk first half and a split friction disk second half; and a damping feature located axially between the split friction disk first half and the split friction disk second half; characterized in that the damping feature comprises carbon foam having a damping feature density, and the damping feature comprises a porosity of between 60%-85%. a pressure plate; a stator friction disk having a stator density, located axially between the pressure plate and an end plate; a rotor friction disk having a rotor density, located axially between the pressure plate and the end plate, wherein the rotor friction disk and the stator friction disk are annular disks, and the rotor friction disk and the stator friction disk are adjacent to one another and disposed coaxially, wherein the stator friction disk is a split friction disk comprising a split friction disk first half and a split friction disk second half; and a damping feature located axially between the split friction disk first half and the split friction disk second half; characterized in that the damping feature comprises carbon foam having a damping feature density, and the damping feature comprises a porosity of between 60%-85%.
A process for the polymerisation of olefins in a polymerisation reactor system, the polymerisation reactor system comprising a reactor and further comprising at least first and second introduction points by which the same reaction component may be introduced directly at different locations on the reactor system, wherein (i) at a first time the reaction component is introduced through at least the first introduction point and such that a proportion X of the reaction component which is introduced through said first and second introduction points is introduced through the first introduction point, and (ii) at a second, later, time the same reaction component is introduced through at least the second introduction point and such that a proportion Y of the reaction component which is introduced through said first and second introduction points is introduced through the first introduction point, wherein Y is less than X, and further wherein at least one of the first and second introduction points is located on the reactor system at a location not on the reactor and which location is such that the reaction component is not passed to the reactor directly nor via any fresh feed lines which themselves feed directly to the reactor. (i) at a first time the reaction component is introduced through at least the first introduction point and such that a proportion X of the reaction component which is introduced through said first and second introduction points is introduced through the first introduction point, and (ii) at a second, later, time the same reaction component is introduced through at least the second introduction point and such that a proportion Y of the reaction component which is introduced through said first and second introduction points is introduced through the first introduction point,
Motor vehicle with an internal combustion engine for driving the vehicle, with at least two auxiliary units (23; 26) and with an electric machine which is connected to a power source and can optionally be coupled to auxiliary units (23; 26) by means of a clutch device, and with a control device for actuating the clutch device for coupling the auxiliary units (23; 26) to the electric machine according to defined priorities, characterized in that the clutch device is formed as a dual clutch, and that two auxiliary units (23; 26) can be coupled to the electric machine by means of the dual clutch, wherein in each case one or the other auxiliary unit (23; 26) or both auxiliary units (23; 26) or no auxiliary unit (23; 26) can be coupled to the electric machine.
An apparatus for transmitting vehicle information to a portable occupant communication device, OCD; the apparatus comprising: a communication module positioned within the vehicle and being configured to: receive a driver status signal indicative of a driver for the vehicle being one of a primary driver and a secondary driver, the vehicle being configured to enable the primary driver to have greater control over vehicle functionality than the secondary driver; receive a transmission status signal indicative of a transmission mode for the vehicle; transmit the driver status signal and the transmission status signal using a wireless protocol to the portable OCD disable switches on the portable OCD if the driver status signal indicates that the driver is the secondary driver and the transmission mode enables movement of the vehicle; and provide voice input from the driver to the portable OCD to control the portable OCD if the driver status signal indicates that the driver is the secondary driver and the transmission mode enables movement of the vehicle. a communication module positioned within the vehicle and being configured to: receive a driver status signal indicative of a driver for the vehicle being one of a primary driver and a secondary driver, the vehicle being configured to enable the primary driver to have greater control over vehicle functionality than the secondary driver; receive a transmission status signal indicative of a transmission mode for the vehicle; transmit the driver status signal and the transmission status signal using a wireless protocol to the portable OCD disable switches on the portable OCD if the driver status signal indicates that the driver is the secondary driver and the transmission mode enables movement of the vehicle; and provide voice input from the driver to the portable OCD to control the portable OCD if the driver status signal indicates that the driver is the secondary driver and the transmission mode enables movement of the vehicle. receive a driver status signal indicative of a driver for the vehicle being one of a primary driver and a secondary driver, the vehicle being configured to enable the primary driver to have greater control over vehicle functionality than the secondary driver; receive a transmission status signal indicative of a transmission mode for the vehicle; transmit the driver status signal and the transmission status signal using a wireless protocol to the portable OCD disable switches on the portable OCD if the driver status signal indicates that the driver is the secondary driver and the transmission mode enables movement of the vehicle; and provide voice input from the driver to the portable OCD to control the portable OCD if the driver status signal indicates that the driver is the secondary driver and the transmission mode enables movement of the vehicle.
A slide rail assembly, comprising: a first rail; a second rail longitudinally displaceable with respect to the first rail; and a coupling mechanism adjacent to the second rail, wherein the coupling mechanism includes: a first base; and a second base movably mounted on the first base; wherein the coupling mechanism further includes a lateral adjustment member for adjusting and thereby laterally displacing the second base with respect to the second rail; characterized in that the first base includes a first feature, the second base includes a second feature, one of the first feature and the second feature includes at least one projection (63a, 63b), the other of the first feature and the second feature includes at least one receiving space (65a, 65b) for receiving the at least one projection (63a, 63b), and the at least one receiving space (65a, 65b) is larger than the at least one projection (63a, 63b) so that, with the first feature and the second feature working with each other, the second base is displaceable within a limited range with respect to the first base. a first rail; a second rail longitudinally displaceable with respect to the first rail; and a coupling mechanism adjacent to the second rail, wherein the coupling mechanism includes: a first base; and a second base movably mounted on the first base; wherein the coupling mechanism further includes a lateral adjustment member for adjusting and thereby laterally displacing the second base with respect to the second rail; characterized in that the first base includes a first feature, the second base includes a second feature, one of the first feature and the second feature includes at least one projection (63a, 63b), the other of the first feature and the second feature includes at least one receiving space (65a, 65b) for receiving the at least one projection (63a, 63b), and the at least one receiving space (65a, 65b) is larger than the at least one projection (63a, 63b) so that, with the first feature and the second feature working with each other, the second base is displaceable within a limited range with respect to the first base. a first base; and a second base movably mounted on the first base; wherein the coupling mechanism further includes a lateral adjustment member for adjusting and thereby laterally displacing the second base with respect to the second rail; characterized in that the first base includes a first feature, the second base includes a second feature, one of the first feature and the second feature includes at least one projection (63a, 63b), the other of the first feature and the second feature includes at least one receiving space (65a, 65b) for receiving the at least one projection (63a, 63b), and the at least one receiving space (65a, 65b) is larger than the at least one projection (63a, 63b) so that, with the first feature and the second feature working with each other, the second base is displaceable within a limited range with respect to the first base.
An AC power grid-emulating inverter (240; 300) configured to provide grid simulation to at least one solar inverter to be commissioned for use on an AC power grid, wherein the grid-emulating inverter (240; 300) comprises: an interface to operatively connect the grid-emulating inverter (240; 300) to the at least one solar inverter to be commissioned; and a switch to disconnect the grid-emulating inverter (240,300) from the at least one solar inverter to be commissioned. an interface to operatively connect the grid-emulating inverter (240; 300) to the at least one solar inverter to be commissioned; and a switch to disconnect the grid-emulating inverter (240,300) from the at least one solar inverter to be commissioned.