mhurhangee/ep-ind-claims huggingface dataset:
Weapon tube for a submarine having an ejection device, wherein the ejection device comprises at least one first working cylinder and at least one first pressure accumulator, wherein the at least one first working cylinder is arranged, wherein the at least one first working cylinder has at least one first side of the working cylinder, wherein the first side of the working cylinder is filled with gas, wherein the at least one first working cylinder has at least one second side of the working cylinder, wherein the second side of the working cylinder is filled with a liquid, wherein the at least one pressure accumulator has at least one first side of the pressure accumulator, wherein the first side of the pressure accumulator is filled with gas, wherein the at least one first pressure accumulator has at least one second side of the pressure accumulator, wherein the second side of the pressure accumulator is filled with a liquid, wherein the at least one second side of the pressure accumulator and the at least one second side of the working cylinder are connected to one another via at least one first connection, wherein the first connection has a first valve, wherein the at least one first working cylinder has a working piston, wherein the working piston separates the at least one first side of the working cylinder and the at least one second side of the working cylinder, wherein the working piston is connected to a coupling device, wherein the coupling device is designed for ejecting a weapon from the weapon tube.
An apparatus configured to: receive a voice data signal; and detect a start point in the voice data signal based on recognition of a predetermined gesture or a predetermined posture and an end point in the voice data signal based on recognition of a lip motion, characterized in that the apparatus is further configured to perform voice recognition on a voice section between the start point and the end point if a voice source direction at the end point and a voice source direction at the start point coincide with each other (S307, S309). receive a voice data signal; and detect a start point in the voice data signal based on recognition of a predetermined gesture or a predetermined posture and an end point in the voice data signal based on recognition of a lip motion, characterized in that the apparatus is further configured to perform voice recognition on a voice section between the start point and the end point if a voice source direction at the end point and a voice source direction at the start point coincide with each other (S307, S309).
A gown comprising: a top portion, a bottom portion, front portion, and a back portion; two arm openings; an opening for a user's head in the top portion; an opening in the back portion extending from the top portion to the bottom portion and creating a left side and a right side of the back portion; characterized in that, a first cord is securely attached to an inside surface of the left side of the back portion in an area designed to be a waist area of a user, wherein the first cord further extends toward the top portion where it is temporarily secured in at least one location, said first cord then extends toward the waist area and passes through a hole in the right side of the back portion to an outer portion of the gown; a second cord is securely attached to an inside surface of the right side of the back portion in an area designed to be the waist area of the user wherein the second cord further extends towards the top portion where it is temporarily secured in at least one location, said second cord then further extends to the waist area and passes through a hole in the left side back portion to an outer portion of the gown. a top portion, a bottom portion, front portion, and a back portion; two arm openings; an opening for a user's head in the top portion; an opening in the back portion extending from the top portion to the bottom portion and creating a left side and a right side of the back portion; characterized in that, a first cord is securely attached to an inside surface of the left side of the back portion in an area designed to be a waist area of a user, wherein the first cord further extends toward the top portion where it is temporarily secured in at least one location, said first cord then extends toward the waist area and passes through a hole in the right side of the back portion to an outer portion of the gown; a second cord is securely attached to an inside surface of the right side of the back portion in an area designed to be the waist area of the user wherein the second cord further extends towards the top portion where it is temporarily secured in at least one location, said second cord then further extends to the waist area and passes through a hole in the left side back portion to an outer portion of the gown.
Degreasing agent for the treatment of hides, skins, pelts and other intermediate products in leather and fur production on the basis of non-ionic surfactants of the alcohol alkoxylate type, wherein one or more alcohol alkoxylates are used which are obtained by reacting at least one alcohol ROH with n mol of at least one alkylene oxide per mol of alcohol ROH, wherein - R is an alkyl group having from 5 to 30 carbon atoms and having a main chain, which is the longest alkyl chain of the R group, having from 4 to 29 carbon atoms, which is in the middle of the chain, starting with the carbon atom C#2, wherein the numbering starts from the carbon atom (C#1), directly attached to the oxygen atom adjacent to the R group and ending with the carbon atom ω-2, wherein ω is the terminal carbon atom of the main chain, wherein C#2 and the carbon atom ω-2 is included, branched with at least one C 1 - to C 10 alkyl group; - the alkylene oxide has 2 to 6 carbon atoms and - n is an integer value between 1 and 100, having a polydispersity D of the individual alcohol alkoxylate or a mixture of alcohol alkoxylates of D >1.22, characterised in that the degreasing agent contains one or a plurality of lipases and/or one or a plurality of efficiency boosters composed of a block copolymer having at least one water-soluble block A and at least one water-insoluble block B. - R is an alkyl group having from 5 to 30 carbon atoms and having a main chain, which is the longest alkyl chain of the R group, having from 4 to 29 carbon atoms, which is in the middle of the chain, starting with the carbon atom C#2, wherein the numbering starts from the carbon atom (C#1), directly attached to the oxygen atom adjacent to the R group and ending with the carbon atom ω-2, wherein ω is the terminal carbon atom of the main chain, wherein C#2 and the carbon atom ω-2 is included, branched with at least one C 1 - to C 10 alkyl group; - the alkylene oxide has 2 to 6 carbon atoms and - n is an integer value between 1 and 100,
Fold-out support leg for a mobile container with a pivot leg, a support tube and a guiding groove adapted for guiding a bolt connected to the mobile container, characterised in that the guiding groove is arranged in the support tube and has two segments of different lengths parallel to a longitudinal axis of the support tube, which are connected by at least one oblique intermediate segment, both ends of the guiding groove being directed in the direction of the pivot leg, so that a lateral movement of the support leg brings the support leg from the storage position to the support position.
A method of determining the level of a material surface in a confined space, from a position above said surface, using an ultrasound transducer positioned above said surface, said method including the steps of: causing said transducer to transmit pulses of ultrasound toward said surface; receiving echo signals arising from said pulses being reflected from said surface; and processing said echo signals to determine the distance from said transducer to said surface, said method being characterised in that energy applied to the creation of said pulses is reduced by reducing the amplitudes of the transmitted pulses when the distance between said transducer and said surface is less than a defined distance and the amplitudes of said echo signals exceed a pre-defined amplitude. causing said transducer to transmit pulses of ultrasound toward said surface; receiving echo signals arising from said pulses being reflected from said surface; and processing said echo signals to determine the distance from said transducer to said surface, said method being characterised in that energy applied to the creation of said pulses is reduced by reducing the amplitudes of the transmitted pulses when the distance between said transducer and said surface is less than a defined distance and the amplitudes of said echo signals exceed a pre-defined amplitude.
A composition comprising (a) a silyl hydride, (b) an alkenyl silicone compound, (c) a platinum compound, (d) a cyclodiene additive, and (e) a cure inhibitor, where the cyclodiene additive (d) is a compound of the formula: wherein R 1 -R 8, R 3', R 4', R 7', and R 8' are independently hydrogen; an alkyl or aryl group optionally containing at least one heteroatom; an alkoxy; and a halogen radical; optionally R 1 -R 2 and/or R 5 -R 6 taken together may form a saturated or unsaturated ring structure, and wherein the ratio of total moles of cyclodiene additive to moles of platinum is less than 2:1. wherein R 1 -R 8, R 3', R 4', R 7', and R 8' are independently hydrogen; an alkyl or aryl group optionally containing at least one heteroatom; an alkoxy; and a halogen radical; optionally R 1 -R 2 and/or R 5 -R 6 taken together may form a saturated or unsaturated ring structure, and wherein the ratio of total moles of cyclodiene additive to moles of platinum is less than 2:1.
A method of manufacturing molybdenum disulfide, MoS 2, having a 1T crystal structure, the method comprising: performing phase transition from a 2H crystal structure of MoS 2 to the 1T crystal structure by annealing the MoS 2 having the 2H crystal structure with CO gas at a temperature in the range of 700°C to 1000°C.
A method for providing time synchronization in a bridge lined via a clock slave port with a grandmaster, the method comprising steps of: sensing a loss of the grandmaster based on a message transferred via the clock slave port; generating a sync message based on an internal reference time of the bridge according to a sensed result; and transmitting the generated sync message through a clock master port (621, 622, 623), wherein the bridge waits for a sync message transmission wait time before generating the sync message if the loss is sensed, wherein the sync message transmission wait time is determined as a sum of the time corresponding to the predetermined number of the sync message transmission cycles of the grandmaster and a predetermined multiple of a correction field value most recently received value from the grandmaster. sensing a loss of the grandmaster based on a message transferred via the clock slave port; generating a sync message based on an internal reference time of the bridge according to a sensed result; and transmitting the generated sync message through a clock master port (621, 622, 623), wherein the bridge waits for a sync message transmission wait time before generating the sync message if the loss is sensed, wherein the sync message transmission wait time is determined as a sum of the time corresponding to the predetermined number of the sync message transmission cycles of the grandmaster and a predetermined multiple of a correction field value most recently received value from the grandmaster.
Method for producing a molded body with gas-filled pores from a metallic material by means of hot-chamber die casting, comprising the following steps: - providing a casting die with a mold cavity, which has a negative shape of a molded body to be produced; - filling the mold cavity with a melt of a metallic material, wherein the mold cavity is filled up to the mold filling end via a gate, which is arranged between the mold cavity and a molded body, and wherein, in doing so, the melt is conveyed to shortly before the gate free of turbulent flows in a first phase, and in a second phase, which follows the first phase, is introduced into the mold cavity with partial formation of turbulent flows; - solidifying the metallic material in the mold cavity; and - demolding the molded body from the casting die; wherein a formation of a pore structure with gas-filled pores in the molded body is promoted by carrying out the production of the molded body in the mold cavity to be free of a holding-pressure phase or with a shortened holding-pressure phase that is shorter than a solidification time of the melt in the gate. - providing a casting die with a mold cavity, which has a negative shape of a molded body to be produced; - filling the mold cavity with a melt of a metallic material, wherein the mold cavity is filled up to the mold filling end via a gate, which is arranged between the mold cavity and a molded body, and wherein, in doing so, the melt is conveyed to shortly before the gate free of turbulent flows in a first phase, and in a second phase, which follows the first phase, is introduced into the mold cavity with partial formation of turbulent flows; - solidifying the metallic material in the mold cavity; and - demolding the molded body from the casting die;
An information processing system including a first system and a second system, the first system and the second system each comprising: hardware, the hardware of the first system and the hardware of the second system being different in nature from each other; a compensation section (130a, 130b) configured to provide execution environments for execution of a process using the hardware of the system to which the compensation section (130a, 130b) belongs; and a processing section (120a, 120b) configured to execute a predetermined process in the execution environments provided by the compensation section (130a, 130b), wherein the compensation section of the first system is configured to compensate for the differences between the hardware of the first system and the hardware of the second system to provide the processing section of the first system with the execution environments which are not affected by the differences between the hardware of the first system and the hardware of the second system, and the compensation section of the second system is configured to compensate for the differences between the hardware of the first system and the hardware of the second system to provide the processing section of the second system with the execution environments which are not affected by the differences between the hardware of the first system and the hardware of the second system; wherein the first system further comprises: a monitoring section configured to detect occurrence of an event indicating that the first system, which is executing the predetermined process, is to be switched from, and when the monitoring section detects the occurrence of the event during execution of the predetermined process by said first system, to cause the processing section of the first system to extract data stored in the hardware being used in the execution of the predetermined process and to generate an image file containing the extracted data to output the generated image file to the second system. hardware, the hardware of the first system and the hardware of the second system being different in nature from each other; a compensation section (130a, 130b) configured to provide execution environments for execution of a process using the hardware of the system to which the compensation section (130a, 130b) belongs; and a processing section (120a, 120b) configured to execute a predetermined process in the execution environments provided by the compensation section (130a, 130b), a monitoring section configured to detect occurrence of an event indicating that the first system, which is executing the predetermined process, is to be switched from, and when the monitoring section detects the occurrence of the event during execution of the predetermined process by said first system, to cause the processing section of the first system to extract data stored in the hardware being used in the execution of the predetermined process and to generate an image file containing the extracted data to output the generated image file to the second system.
A disc brake assembly (50, 130) comprising: a core structure (52, 60) defining an inner and outer diameter (ID, OD), the core structure having a first major surface comprising at least one curved ridge or curved channel that curves as the curved ridge or curved channel extends in a radial direction along the first major surface between the inner and outer diameter of the core structure; and a plurality of wear pads (54, 80, 100), each wear pad defining a friction surface (82, 102) and a mounting surface (84, 104), wherein the mounting surfaces of the plurality of wear pads are positioned adjacent to, and in contact with, the first major surface of the core structure, wherein the mounting surface of at least one wear pad of the plurality of wear pads comprises a corresponding curved ridge or curved channel (86, 106) configured to interlink with the at least one curved ridge or curved channel of the core structure and that curves as the corresponding curved ridge or curved channel extends in the radial direction along the mounting surface, wherein the plurality of wear pads includes a first wear pad and a second wear pad. a core structure (52, 60) defining an inner and outer diameter (ID, OD), the core structure having a first major surface comprising at least one curved ridge or curved channel that curves as the curved ridge or curved channel extends in a radial direction along the first major surface between the inner and outer diameter of the core structure; and a plurality of wear pads (54, 80, 100), each wear pad defining a friction surface (82, 102) and a mounting surface (84, 104), wherein the mounting surfaces of the plurality of wear pads are positioned adjacent to, and in contact with, the first major surface of the core structure, wherein the mounting surface of at least one wear pad of the plurality of wear pads comprises a corresponding curved ridge or curved channel (86, 106) configured to interlink with the at least one curved ridge or curved channel of the core structure and that curves as the corresponding curved ridge or curved channel extends in the radial direction along the mounting surface, wherein the plurality of wear pads includes a first wear pad and a second wear pad.
An insulating body for a plug connector, wherein the insulating body comprises at least two electrical contact elements, wherein the insulating body comprises at least two sensors for measuring the current, wherein each sensor is allocated to an electrical contact element, wherein the insulating body is formed from a synthetic material base body and two lateral parts, a first lateral part and a second lateral part characterized in that at least two shield arms protrude in a perpendicular manner from the first lateral part, said shield arms engaging through cut-outs in the base body and that the shield arms have a metal core and that the sensors are shielded from one another in an electromagnetic manner by means of the shield arms
A method for providing a security service, comprising: in response to receiving, at a first controller, a first request to create a first service chain for an application in a network, obtaining configuration information associated with a security service from the first request; generating, based on the configuration information, a second request to create a sequence of security functions associated with the first service chain, wherein the sequence of security functions is user-oriented; sending the second request to a second controller so as to create the sequence of security functions in the network; and in response to receiving from the second controller an acknowledgement for the sequence of security functions, creating the first service chain based on the sequence of security functions; wherein creating the first service chain based on the sequence of security functions comprises: deploying, in a predetermined order, the sequence of security functions into the first service chain, the sequence of security functions including at least one of authentication and authorization functions. in response to receiving, at a first controller, a first request to create a first service chain for an application in a network, obtaining configuration information associated with a security service from the first request; generating, based on the configuration information, a second request to create a sequence of security functions associated with the first service chain, wherein the sequence of security functions is user-oriented; sending the second request to a second controller so as to create the sequence of security functions in the network; and in response to receiving from the second controller an acknowledgement for the sequence of security functions, creating the first service chain based on the sequence of security functions; wherein creating the first service chain based on the sequence of security functions comprises: deploying, in a predetermined order, the sequence of security functions into the first service chain, the sequence of security functions including at least one of authentication and authorization functions.
A composition comprising pridopidine or its pharmaceutically acceptable salt for use in treating a subject afflicted with Rett syndrome, wherein the composition treats the subject by delaying the onset, preventing worsening, delaying worsening or improving at least one RTT symptom in the subject, wherein the RTT symptom is: • a partial or complete loss of acquired mobility skills; • muscle weakness; and/or • abnormal muscle tone. • a partial or complete loss of acquired mobility skills; • muscle weakness; and/or • abnormal muscle tone.
Direct driven wind turbine comprising a blade, a tower, a main shaft and a radial flux generator which is connected to the grid and comprises laminations (17, 18, 19), and a tensile joint comprising a front plate and an end plate with inbetween laminations, characterised in that said laminations are directly exposed to the ambient air and in that the tensile joint presses together the laminations in axial direction by a force which is larger than 1 time and in particular larger than 2 times and more in particular larger than 6 times the ratio between the maximum operational torque T max and the radius of the air gap r airgap, so that said laminations (17, 18, 19) are essential for the transfer of the torque in axial direction, wherein said laminations (17, 18, 19) transfer the torque in axial direction for about 100%, wherein the outside of the laminations is covered by an anti corrosive layer.