mhurhangee/ep-ind-claims huggingface dataset:
A label component configured to be applied to an optical fiber connector body comprising a plug, a middle part, and a rear retainer that are sequentially connected, wherein the label component (503, 1501) comprises a connecting piece and a label module (503, 1501), the connecting piece is connected to the label module (503, 1501), the label module (503, 1501) has a target surface, the target surface is penetrated by an extension line in the axial direction of the optical fiber connector body and is opposite to a location of the optical fiber connector body, and the target surface is used to set label information, and the label information is used to identify the optical fiber connector body; wherein the connecting piece comprises a mounting groove (1207, 1502) and an extension rod (1208, 1503); one end of the extension rod (1208, 1503) is connected to the mounting groove (1207, 1502), and the other end of the extension rod (1208, 1503) is connected to the label module (503, 1501); and the mounting groove (1207, 1502) is used to mount and fix the middle part of the optical fiber connector body. the connecting piece is connected to the label module (503, 1501), the label module (503, 1501) has a target surface, the target surface is penetrated by an extension line in the axial direction of the optical fiber connector body and is opposite to a location of the optical fiber connector body, and the target surface is used to set label information, and the label information is used to identify the optical fiber connector body; wherein the connecting piece comprises a mounting groove (1207, 1502) and an extension rod (1208, 1503); one end of the extension rod (1208, 1503) is connected to the mounting groove (1207, 1502), and the other end of the extension rod (1208, 1503) is connected to the label module (503, 1501); and the mounting groove (1207, 1502) is used to mount and fix the middle part of the optical fiber connector body.
Discharge unit (1, 2, 3) for use in a steaming device, comprising: - a chamber for accommodating a flow of a water-steam mixture and heating the water-steam mixture; - an inlet for supplying a water-steam mixture to the chamber; - an outlet for letting out steam from the chamber; - a barrier which is arranged inside the chamber, in a flow path of a water-steam mixture from the inlet to the outlet, characterised in that said barrier is arranged to constitute an obstacle in said flow path from said inlet to said outlet thereby, during use, forcing the flow to follow another route than a direct route; and - the chamber is provided with a surface having hydrophobic properties, wherein said surface is located inside the chamber. - a chamber for accommodating a flow of a water-steam mixture and heating the water-steam mixture; - an inlet for supplying a water-steam mixture to the chamber; - an outlet for letting out steam from the chamber; - a barrier which is arranged inside the chamber, in a flow path of a water-steam mixture from the inlet to the outlet, characterised in that said barrier is arranged to constitute an obstacle in said flow path from said inlet to said outlet thereby, during use, forcing the flow to follow another route than a direct route; and - the chamber is provided with a surface having hydrophobic properties, wherein said surface is located inside the chamber.
A device for a surgical displacement of vertebrae, containing two parts cooperating in a sliding way: - a sliding part with an internal thread, - a carrier part, and - a driving element with an external thread located between them, where: - the sliding part of the device is provided with a threaded guideline cooperating with the driving element, - the driving element is provided with a head, - the carrier part of the device has got a cylindrical seat with the diameter and length corresponding with head's diameter and length, and - the sliding part and carrier part are provided with cooperating elements: at least one first shaped element and a second shaped element constituting a lock preventing separation of the parts (1, 3) in the perpendicular direction to the longitudinal axis of the device, characterised in that the sliding part of the device is provided with a seat of the diameter corresponding with the diameter of head, and with length larger than head's length. - a sliding part with an internal thread, - a carrier part, and - a driving element with an external thread located between them, - the sliding part of the device is provided with a threaded guideline cooperating with the driving element, - the driving element is provided with a head, - the carrier part of the device has got a cylindrical seat with the diameter and length corresponding with head's diameter and length, and - the sliding part and carrier part are provided with cooperating elements: at least one first shaped element and a second shaped element constituting a lock preventing separation of the parts (1, 3) in the perpendicular direction to the longitudinal axis of the device,
A scalding prevention device, having a base body surrounding a cylindrical chamber, having a cold-water inflow provided on the base body and discharging into the cylindrical chamber, having a warm-water inflow provided on the base body and discharging into the cylindrical chamber, having a mixed-water outflow provided on the base body and coming from the cylindrical chamber, wherein a displaceable mixing piston for at least intermittent closure of the warm-water inflow and/or opening of the cold-water inflow is provided in the cylindrical chamber, and wherein for displacing the mixing piston, an adjuster that adjusts as a function of temperature is provided such that if a limit temperature is exceeded, the warm-water inflow is closed at least intermittently and/or the cold-water inflow is opened at least intermittently, characterized in that the mixing piston is embodied as hollow and has a jacket and a closed bottom, and the jacket has a warm-water opening cooperating with the warm-water inflow and a cold-water opening cooperating with the cold-water inflow, and the bottom, below the limit temperature, separates the cold-water opening from the cold-water inflow.
A method of constructing footwear comprising: providing a mold having an inner cavity; injecting an expandable material into the inner cavity; removing the expandable material from the inner cavity, such that the material expands to form a footwear-shaped shell, the shell having an inner cavity and at least one recessed area (31, 32) offset from an inner surface of the shell; and inserting a chassis within the inner cavity of the expanded shell, the chassis having one or more components (52, 66, 76, 86) adapted to protect a user's foot from injury, wherein insertion of the chassis within the shell permanently affixes the one or more components within the at least one recessed area of the shell. providing a mold having an inner cavity; injecting an expandable material into the inner cavity; removing the expandable material from the inner cavity, such that the material expands to form a footwear-shaped shell, the shell having an inner cavity and at least one recessed area (31, 32) offset from an inner surface of the shell; and inserting a chassis within the inner cavity of the expanded shell, the chassis having one or more components (52, 66, 76, 86) adapted to protect a user's foot from injury, wherein insertion of the chassis within the shell permanently affixes the one or more components within the at least one recessed area of the shell.
A control module for automatic reset devices, comprising a containment body having a conductor and a micro-switch, said conductor being connectable to an electrical circuit, said micro-switch being connected to a reset device; said module further comprising a fixed core and a movable element which are subjected to an electromagnetic field generated by a current flowing in said conductor; said movable member being movable from an active position of said micro-switch to an inactive position of said micro-switch; said movable member being movable in contrast with a spring; a force generated by said electromagnetic field causing the movement of said movable member; said module being characterized in that said containment body comprises at least one passage through which said conductor, constituted by an electric cable, is inserted.
A glaucoma drainage system comprising: a body; a compliant fluid conduit fluidly coupled to the body and including a first end, a second end, and a lumen, the first end being positionable within a fluid-filled body cavity of a biological tissue, and the second end being positionable outside of the fluid-filled body cavity such that a fluid from the fluid-filled body cavity is transferrable through the lumen of the fluid conduit to the body; and a stiffening member (2100, 2200, 9700) removably coupled with the fluid conduit, the stiffening member (2100, 2200, 9700) being positioned within the lumen and extending a length of the fluid conduit, characterised in that the stiffening member forms a helical coil within the lumen of the fluid conduit, and wherein the helical coil is configured to uncoil or partially uncoil upon an application of tension to one of a first end and a second end of the stiffening member. a body; a compliant fluid conduit fluidly coupled to the body and including a first end, a second end, and a lumen, the first end being positionable within a fluid-filled body cavity of a biological tissue, and the second end being positionable outside of the fluid-filled body cavity such that a fluid from the fluid-filled body cavity is transferrable through the lumen of the fluid conduit to the body; and a stiffening member (2100, 2200, 9700) removably coupled with the fluid conduit, the stiffening member (2100, 2200, 9700) being positioned within the lumen and extending a length of the fluid conduit, characterised in that the stiffening member forms a helical coil within the lumen of the fluid conduit, and wherein the helical coil is configured to uncoil or partially uncoil upon an application of tension to one of a first end and a second end of the stiffening member.
A Triazolo(4,5-d)pyrimidine derivative of formula wherein R 1 is C 3-5 alkyl optionally substituted by one or more halogen atoms; R 2 is a phenyl group, optionally substituted by one or more halogen atoms; R 3 and R 4 are both hydroxyl; R is XOH, where X is CH 2, OCH 2 CH 2, or a bond; or a pharmaceutical acceptable salt or solvate thereof, or a solvate of such a salt provided that when X is CH 2 or a bond, R 1 is not propyl; when X is CH 2 and R 1 CH 2 CH 2 CF 3, butyl or pentyl, the phenyl group at R 2 must be substituted by fluorine; when X is OCH 2 CH 2 and R 1 is propyl, the phenyl group at R 2 must be substituted by fluorine; for use in treatment or prevention of bacterial infection in a host mammal in need of such treatment. wherein R 1 is C 3-5 alkyl optionally substituted by one or more halogen atoms; R 2 is a phenyl group, optionally substituted by one or more halogen atoms; R 3 and R 4 are both hydroxyl; R is XOH, where X is CH 2, OCH 2 CH 2, or a bond; or a pharmaceutical acceptable salt or solvate thereof, or a solvate of such a salt provided that when X is CH 2 or a bond, R 1 is not propyl; when X is CH 2 and R 1 CH 2 CH 2 CF 3, butyl or pentyl, the phenyl group at R 2 must be substituted by fluorine; when X is OCH 2 CH 2 and R 1 is propyl, the phenyl group at R 2 must be substituted by fluorine; for use in treatment or prevention of bacterial infection in a host mammal in need of such treatment.
Method for establishing a voice communication between a mobile entity and a receiving entity within an enterprise network, comprising the following steps: - Sending a communication request, CR, by the mobile entity to a WiFi access point, AP, - Forwarding the communication request, CR, from the WiFi access point, AP, to a core network, a voice path optimizer, VPO, which represents session information and is located within the mobile entity and/or the WiFi access point, AP, indicates to the core network the support for break-out, - Establishing a signaling session, SS, between the core network and the enterprise network and the Mobile entity, wherein the signaling session, SS, is established between the WiFi access point, AP, and the core network as well as between an enterprise router of the enterprise network and the core network, - Breaking out the voice communication at the WiFi access point AP, to a private exchange server of the enterprise network, wherein the signaling session is kept alive until the specific voice communication has come to an end and keeps the core network updated about the present situation of the voice communication, - Connecting the voice communication from the private exchange server to the receiving entity, characterized in that it further comprises the following steps: upon receiving the CR forwarded by the AP, carrying out, by the core network a comparison if the mobile entity and the receiving entity are located within the same enterprise network, and sending by the core network a breakout message, BM, back to the WiFi access point AP, or the mobile entity in the case of a positive comparison. - Sending a communication request, CR, by the mobile entity to a WiFi access point, AP, - Forwarding the communication request, CR, from the WiFi access point, AP, to a core network, a voice path optimizer, VPO, which represents session information and is located within the mobile entity and/or the WiFi access point, AP, indicates to the core network the support for break-out, - Establishing a signaling session, SS, between the core network and the enterprise network and the Mobile entity, wherein the signaling session, SS, is established between the WiFi access point, AP, and the core network as well as between an enterprise router of the enterprise network and the core network, - Breaking out the voice communication at the WiFi access point AP, to a private exchange server of the enterprise network, wherein the signaling session is kept alive until the specific voice communication has come to an end and keeps the core network updated about the present situation of the voice communication, - Connecting the voice communication from the private exchange server to the receiving entity,
A method for wireless communications, comprising: receiving, by a user terminal, a data packet comprising one or more data symbols; extracting, by the user terminal, a length field, LENGTH, and a correction field from the data packet; and calculating, by the user terminal, a number of data symbols, Nsym, in the packet, based on the length field using one of expressions: N SYM = ceil LENGTH + 3 / 3 − 4 − N VHT − LTF; N SYM = floor ceil LENGTH + 3 / 3 − 4 − N VHT − LTF * 4 / 3.6; and N SYM = floor ceil LENGTH + 3 / 3 − 4 − N VHT − LTF * 4 / 3.6 − 1, wherein N VHT-LTF is the number of Very High Throughput Long Training Fields and wherein the expression is selected based on the correction field. receiving, by a user terminal, a data packet comprising one or more data symbols; extracting, by the user terminal, a length field, LENGTH, and a correction field from the data packet; and calculating, by the user terminal, a number of data symbols, Nsym, in the packet, based on the length field using one of expressions: N SYM = ceil LENGTH + 3 / 3 − 4 − N VHT − LTF; N SYM = floor ceil LENGTH + 3 / 3 − 4 − N VHT − LTF * 4 / 3.6; and N SYM = floor ceil LENGTH + 3 / 3 − 4 − N VHT − LTF * 4 / 3.6 − 1, wherein N VHT-LTF is the number of Very High Throughput Long Training Fields and wherein the expression is selected based on the correction field.
A hybrid stent having a cylindrical structure of which both ends are opened in a longitudinal direction, comprising: multiple main cells aligned in a spiral shape and including multiple first link units which are aligned diagonally and spaced at a predetermined distance from each other and multiple second link units which connect adjacent first link units among the multiple first link units and are spaced at a predetermined distance from each other, wherein one of the multiple main cells is formed by two of the multiple first link units and two of the multiple second link units; and one or more open cells adjacent to the multiple main cells in a longitudinal direction and aligned in a spiral shape, characterized in that the multiple open cells are aligned sequentially in a spiral shape, and one open cell corresponds to at least two main cells; and a line connecting vertices in left and right directions among four vertices in up and down directions and left and right directions of the one main cell is at an angle of 45° or less to the longitudinal direction of the stent. multiple main cells aligned in a spiral shape and including multiple first link units which are aligned diagonally and spaced at a predetermined distance from each other and multiple second link units which connect adjacent first link units among the multiple first link units and are spaced at a predetermined distance from each other, wherein one of the multiple main cells is formed by two of the multiple first link units and two of the multiple second link units; and one or more open cells adjacent to the multiple main cells in a longitudinal direction and aligned in a spiral shape, characterized in that the multiple open cells are aligned sequentially in a spiral shape, and one open cell corresponds to at least two main cells; and a line connecting vertices in left and right directions among four vertices in up and down directions and left and right directions of the one main cell is at an angle of 45° or less to the longitudinal direction of the stent.
A method for determining the amount of insulin in a biological sample when taken from a human, by tandem mass spectrometry, the method comprising: (a) subjecting the sample to conditions suitable to generate insulin A chains from insulin; (b) processing the sample from step (a) to obtain a fraction enriched in insulin A chains; (c) subjecting the enriched insulin A chains to an ionization source under conditions suitable to generate one or more insulin A chain ions detectable by mass spectrometry; and (d) determining by tandem mass spectrometry the amount of one or more insulin A chain ions, wherein said one or more insulin A chain ions comprise one or more fragment ions selected from the group of ions with mass to charge ratios (m/z) of 570.0 ± 0.5, 456.0 ± 0.5, 293.0 ± 0.5, and 133.0 ± 0.5, wherein the amount of ions determined in step (d) is related to the amount of insulin in said sample. (a) subjecting the sample to conditions suitable to generate insulin A chains from insulin; (b) processing the sample from step (a) to obtain a fraction enriched in insulin A chains; (c) subjecting the enriched insulin A chains to an ionization source under conditions suitable to generate one or more insulin A chain ions detectable by mass spectrometry; and (d) determining by tandem mass spectrometry the amount of one or more insulin A chain ions, wherein said one or more insulin A chain ions comprise one or more fragment ions selected from the group of ions with mass to charge ratios (m/z) of 570.0 ± 0.5, 456.0 ± 0.5, 293.0 ± 0.5, and 133.0 ± 0.5,
A method for modifying the software in the memory of an electronic control unit the memory comprising at least one permanent memory having a plurality of original program routines saved therein and forming at least part of the software and being processed by at least one processor of the control unit, and further comprising at least one working memory for storing volatile data, a bypass routine being saved in the control unit and being processed in addition to or instead of at least one original program routine, taking place in that as the program steps are processed by the processor a service function is called at least before the end of the original program routine, the memory address of a bypass routine optionally being transmitted to said function, taking place in that a pointer to a position in a saved table is transferred to the service function and that the bypass routine is called by the address formed by the entry if an entry is present in the table at said position, and the service function is terminated without calling the bypass routine if no entry or an entry marked as invalid is present, the bypass routine being transmitted via an interface of the control unit by means of a computer connected to the interface into a region of the memory located outside of the permanent memory, particularly into the working memory, and the address at which the bypass routine begins being transmitted to the service function, characterized in that in a first method step, the calling of the bypass routine is deactivated by the service function, in that a present entry at the position of the table determined by the pointer is deleted or marked as invalid, in a second method step, the bypass routine is replaced with a new bypass routine in a period of time in which the processor is not processing the bypass routine and the software is running with the original program routine, and in a third method step, the calling of the new bypass routine is activated by the service function, wherein the first method step, the second method step, and the third method step are performed as the software is being processed by the processor, and wherein the bypass routine either is associated with a status register set to a first value by the service function while the bypass routine is being executed and otherwise set to a second value by the service function, or is deleted, wherein the second method step is performed only if the entry at the position in the table is deleted or marked as invalid and simultaneously the status register of the first bypass routine to be replaced is set to the second value or deleted, or a counter is used for monitoring the number of processes processing the bypass routine at a given time, wherein for each call of the bypass routine the counter is incremented by the service function and when the bypass routine is terminated the counter is decremented, and the second method step is performed only if the entry at the position in the table is deleted or marked as invalid and the counter is simultaneously at zero.
A method for receiving positive-acknowledgement/negative-acknowledgement, ACK/NACK, by a base station, BS,, the method comprising: transmitting data in at least one of a subframe n of a first cell and a subframe n of a second cell, wherein n is an integer number; and receiving ACK/NACK information for the data in a subframe n+k of the first cell, wherein k is an integer number, wherein when the first cell uses a Frequency Division Duplex, FDD, radio frame and the second cell uses a Time Division Duplex, TDD, radio frame, the integer number k is determined as 4, characterized in that when the subframe n of the second cell is a subframe which cannot be used for transmitting the data, the ACK/NACK information is received by a physical uplink control channel, PUCCH, format 1a or 1b, and in that when the subframe n of the second cell is a subframe which can be used for transmitting the data, the ACK/NACK information is received by a PUCCH format 1b with channel selection. transmitting data in at least one of a subframe n of a first cell and a subframe n of a second cell, wherein n is an integer number; and receiving ACK/NACK information for the data in a subframe n+k of the first cell, wherein k is an integer number, wherein when the first cell uses a Frequency Division Duplex, FDD, radio frame and the second cell uses a Time Division Duplex, TDD, radio frame, the integer number k is determined as 4, characterized in that when the subframe n of the second cell is a subframe which cannot be used for transmitting the data, the ACK/NACK information is received by a physical uplink control channel, PUCCH, format 1a or 1b, and in that when the subframe n of the second cell is a subframe which can be used for transmitting the data, the ACK/NACK information is received by a PUCCH format 1b with channel selection.