mhurhangee/ep-ind-claims huggingface dataset:
A stent for placement at the aortic annulus that is expandable from an un-deployed state into a deployed state and that comprises: a stent frame that has an inferior section and a superior section and that is formed from a plurality of elongate struts, with the plurality of elongate struts being connected one to another at points of connection to form a plurality of stent cells formed of vertices (16a, 16b) at the points of connection and respective sections of the plurality of elongate struts; and a plurality of eyelets, with at least some of the plurality of eyelets forming at least some of the vertices (16a, 16b) at the points of connection between the elongate struts characterized in that at least some of the elongate struts are endless struts having an undulating shape with two end points and several eyelets, with the vertices of at least some of the stent cells of the endless struts respectively being formed by points of connection between adjacent elongate struts and by points of constriction by means of which the endless struts are respectively combined along their length to form stent cells within an individual endless strut, and in that at least some of the stent cells have all of their vertices (16a, 16b) formed by the eyelets, with the eyelets connecting respective sections of the elongate struts such that the stent frame has a web-like structure, with each individual stent cell of the web-like structure having a curved diamond shape formed by said struts and four vertices (16a, 16b). a stent frame that has an inferior section and a superior section and that is formed from a plurality of elongate struts, with the plurality of elongate struts being connected one to another at points of connection to form a plurality of stent cells formed of vertices (16a, 16b) at the points of connection and respective sections of the plurality of elongate struts; and a plurality of eyelets, with at least some of the plurality of eyelets forming at least some of the vertices (16a, 16b) at the points of connection between the elongate struts characterized in that at least some of the elongate struts are endless struts having an undulating shape with two end points and several eyelets, with the vertices of at least some of the stent cells of the endless struts respectively being formed by points of connection between adjacent elongate struts and by points of constriction by means of which the endless struts are respectively combined along their length to form stent cells within an individual endless strut, and in that at least some of the stent cells have all of their vertices (16a, 16b) formed by the eyelets, with the eyelets connecting respective sections of the elongate struts such that the stent frame has a web-like structure, with each individual stent cell of the web-like structure having a curved diamond shape formed by said struts and four vertices (16a, 16b).
A disposable coated paper straw formed by rolling a sheet into a tubular shape; the sheet being a coated paper strip made of a coated paper which comprises a paper-base layer and a coating layer; the coating layer made of a biodegradable coated resin; in the straw, the coating layer being located at least at an exterior side of the paper-base layer; characterized in that: the straw comprises an interface edge which is joined by an overlapping portion of two sides of the coated paper strip in the longitudinal direction; the interface edge extending along a longitudinal axis of the straw. the sheet being a coated paper strip made of a coated paper which comprises a paper-base layer and a coating layer; the coating layer made of a biodegradable coated resin; in the straw, the coating layer being located at least at an exterior side of the paper-base layer; characterized in that: the straw comprises an interface edge which is joined by an overlapping portion of two sides of the coated paper strip in the longitudinal direction; the interface edge extending along a longitudinal axis of the straw.
A forming machine to form mattresses or panels from a non-solid material comprising: - a station for loading said non-solid material, - a processing and transferring station comprising an inlet portion of said non-solid material connected to said loading station, a processing and transferring element of said non-solid material, an outlet portion to which said processed non-solid material is directed, - an unloading station positioned downstream of said processing and transferring station and facing said outlet portion, - a drive device, positioned close to said outlet portion of said processing and transferring station, said drive device being configured for directing said non-solid material processed and moved by said processing and transferring station towards predetermined zones of said unloading station, said machine being characterised in that said drive device comprises two deflectors (51, 52), wherein said two deflectors (51, 52) are movable synchronously with each other or independently of each other. - a station for loading said non-solid material, - a processing and transferring station comprising an inlet portion of said non-solid material connected to said loading station, a processing and transferring element of said non-solid material, an outlet portion to which said processed non-solid material is directed, - an unloading station positioned downstream of said processing and transferring station and facing said outlet portion, - a drive device, positioned close to said outlet portion of said processing and transferring station, said drive device being configured for directing said non-solid material processed and moved by said processing and transferring station towards predetermined zones of said unloading station, said machine being characterised in that said drive device comprises two deflectors (51, 52), wherein said two deflectors (51, 52) are movable synchronously with each other or independently of each other.
A garment (100, 200, 300, 1600) comprising: a shrug component (120, 220, 1610) comprising at least one back panel, a right sleeve, and a left sleeve, wherein the right sleeve and the left sleeve comprise a superior portion (1631, 1632) and an inferior portion (1630, 1632); and a sleeveless vest component (110, 210, 1620) extending, in part, over the shrug component, the vest component comprising at least one front panel (1621, 1623, 1720, 1730) and at least one back panel, wherein when the at least one front panel and the at least one back panel are affixed to each other, the at least one front panel and the at least one back panel cooperate to form a pair of 1 U-shaped partial arm holes; wherein the right sleeve and the left sleeve of the shrug component extend through the respective U-shaped partial arm holes of the vest component; wherein the vest component is affixed to the shrug component at respective superior portions of the right sleeve and the left sleeve of the shrug component at a shoulder area; and wherein the vest component is not affixed to the shrug component at respective inferior portions of the right sleeve and the left sleeve. a shrug component (120, 220, 1610) comprising at least one back panel, a right sleeve, and a left sleeve, wherein the right sleeve and the left sleeve comprise a superior portion (1631, 1632) and an inferior portion (1630, 1632); and a sleeveless vest component (110, 210, 1620) extending, in part, over the shrug component, the vest component comprising at least one front panel (1621, 1623, 1720, 1730) and at least one back panel, wherein when the at least one front panel and the at least one back panel are affixed to each other, the at least one front panel and the at least one back panel cooperate to form a pair of 1 U-shaped partial arm holes; wherein the right sleeve and the left sleeve of the shrug component extend through the respective U-shaped partial arm holes of the vest component; wherein the vest component is affixed to the shrug component at respective superior portions of the right sleeve and the left sleeve of the shrug component at a shoulder area; and wherein the vest component is not affixed to the shrug component at respective inferior portions of the right sleeve and the left sleeve.
Method for establishing a data connection (RTP/RTCP) between a calling endpoint (HFA A) and a called endpoint (HFA B) in a VoIP arrangement with at least one switching entity (node 1, node 2), wherein, for the exchange of information, between each endpoint (HFA A, HFA B) and the at least one switching entity (node 1, node 2), a first signaling connection (CorNet-TS/TC) is established according to a first protocol and a second signaling connection (H.225 Tunnelled H.245) is established according to a standardized second protocol, wherein the first protocol is a proprietary protocol, wherein the information that is not defined in the second protocol is transmitted using the first protocol, wherein the data connection (RTP/RTCP) is established based on information exchanged according to the second protocol, wherein at least the second signaling connection (H.225 Tunnelled H.245) is initiated by the calling endpoint (HFA A), wherein the information of the endpoints (HFA A, HFA B) transmitted via the first signaling connection and in parallel via the second signaling connection is combined in each case, and wherein the data connection (RTP/RTCP) is established directly between the endpoints (HFA A, HFA B) via a packet transmission network.
Transmission for a motor vehicle with a main transmission, comprising two parallel-connected partial transmissions, and also an output shaft, and also a first and a second planetary gearing (PG1, PG2), having the elements planet arm (ST1, ST2), sun gearwheel (SR1, SR2) and internal gearwheel (HR1, HR2), wherein each partial transmission has a transmission input shaft (4, 5), wherein a first transmission input shaft is configured as a hollow shaft and a second transmission input shaft is configured as a solid shaft, wherein a first planetary gearing adjoins the main transmission as a range group, wherein the main transmission comprises a first gearwheel plane, a second gearwheel plane, a third gearwheel plane, a fourth gearwheel plane and a fifth gear wheel plane and a first shifting element, a second shifting element, a third shifting element and a fourth shifting element and at least one countershaft, wherein a second planetary gearing is provided between an electrical machine and the first transmission input shaft as a planetary stage, wherein the first shifting element in a first shifting position connects the first gearwheel plane and in a second shifting position connects the second gearwheel plane to the first transmission input shaft, wherein the second shifting element in a first shifting position connects the first transmission input shaft and in a second shifting position connects the third gearwheel plane to the second transmission input shaft, whereby the second shifting element in the first shifting position serves for coupling the partial transmissions, and wherein the fourth shifting element in a second shifting position connects the fifth gearwheel plane and the planet arm of the range group, and consequently the range group can be shifted under load.
Method for synchronization of a multitude of wearable devices (1.1, 1.2), - wherein each wearable device (1.1, 1.2) is attached to a body of a living organism, wherein - a software application running on a coordination device sends an application time information to each wearable device (1.1, 1.2) such as to allow the wearable devices (1.1, 1.2) to synchronize, - each wearable device (1.1, 1.2) stores the application time information and starts a counter for maintaining a wearable device time in line with the application time information, wherein - in each particular wearable device (1.1, 1.2), the counter of that particular wearable device (1.1, 1.2) uses a sampling rate of at least one pulse sensor comprised in that particular wearable device (1.1, 1.2) for counting, characterized in that - at least one wearable device (1.1, 1.2) periodically sends a distinct shape electrical impulse through the body to the other wearable devices (1.1, 1.2) so that the other wearable devices (1.1, 1.2) can use that distinct shape electrical impulse for synchronization, wherein - the distinct shape electrical impulse has an amplitude that is higher than a typical amplitude of an ECG signal. - wherein each wearable device (1.1, 1.2) is attached to a body of a living organism, wherein - a software application running on a coordination device sends an application time information to each wearable device (1.1, 1.2) such as to allow the wearable devices (1.1, 1.2) to synchronize, - each wearable device (1.1, 1.2) stores the application time information and starts a counter for maintaining a wearable device time in line with the application time information, wherein - in each particular wearable device (1.1, 1.2), the counter of that particular wearable device (1.1, 1.2) uses a sampling rate of at least one pulse sensor comprised in that particular wearable device (1.1, 1.2) for counting, characterized in that - at least one wearable device (1.1, 1.2) periodically sends a distinct shape electrical impulse through the body to the other wearable devices (1.1, 1.2) so that the other wearable devices (1.1, 1.2) can use that distinct shape electrical impulse for synchronization, wherein - the distinct shape electrical impulse has an amplitude that is higher than a typical amplitude of an ECG signal.
A system for automatically terminating a voice call, the system comprising: a memory unit in a device configured to store a set of defined keywords indicating the end of the voice conversation; a voice recognition system provided in the device and configured to recognize spoken words in a voice conversation between a caller and a receiver; wherein the voice recognition system is configured to detect at least one keyword of the set of defined keywords in the voice conversation of the voice call; wherein the voice recognition system is further configured to check whether the voice conversation is continued or not for a predefined time after detecting at least one keyword; and wherein the voice recognition system is configured to terminate the call after detecting at least one of the defined keywords if the voice conversation is not continued; characterized by: the system being further configured for learning and storing new words as keywords if the words are used in a plurality of cases at the end of a voice conversation. a memory unit in a device configured to store a set of defined keywords indicating the end of the voice conversation; a voice recognition system provided in the device and configured to recognize spoken words in a voice conversation between a caller and a receiver; wherein the voice recognition system is configured to detect at least one keyword of the set of defined keywords in the voice conversation of the voice call; wherein the voice recognition system is further configured to check whether the voice conversation is continued or not for a predefined time after detecting at least one keyword; and wherein the voice recognition system is configured to terminate the call after detecting at least one of the defined keywords if the voice conversation is not continued; characterized by: the system being further configured for learning and storing new words as keywords if the words are used in a plurality of cases at the end of a voice conversation.
Cable connection apparatus (6; 19), comprising: - a container (1; 10) provided with at least one inlet for the introduction of cables into the container, - a cylindrical drum (2; 30), which is displaceable in a direction parallel to a central axis (x) between a first position in the interior of the container and a second position in which the drum projects at least partly outside the container, and - connection means (41; 61), located in the drum, for the connection of conductors of one or more cables (6; 19) introduced via the inlet, the apparatus being characterised in that a cylindrical outer wall of the drum is provided with one or more access apertures for access to the connection means in said second position, wherein the drum is double-walled with an inner wall and the cylindrical outer wall, which walls are arranged concentrically relative to the central axis, and that the connection means are located in a hollow interspace between the inner and outer wall of the drum, cables (6; 19) terminated on the connection means (41; 61) being led from the at least one inlet via the hollow interspace to the connection means (41; 61). - a container (1; 10) provided with at least one inlet for the introduction of cables into the container, - a cylindrical drum (2; 30), which is displaceable in a direction parallel to a central axis (x) between a first position in the interior of the container and a second position in which the drum projects at least partly outside the container, and - connection means (41; 61), located in the drum, for the connection of conductors of one or more cables (6; 19) introduced via the inlet,
An apparatus for attaching an interconnector of a solar cell panel, the apparatus comprising: an interconnector fixing unit configured to form an interconnector-jig coupling by fixing a plurality of interconnectors to a jig; a working table configured to receive the interconnector-jig coupling to fix the interconnectors to a solar cell; and a heat source configured to attach the interconnectors and the solar cell to each other by applying heat to the interconnectors and the solar cell, which are fixed to each other, wherein the jig is configured to be separated from the interconnectors prior to passing through the heat source, wherein the apparatus further comprises a cutter configured to cut the interconnectors of the interconnector-jig coupling before the interconnector-jig coupling is received at the working table or positioned on the solar cell. an interconnector fixing unit configured to form an interconnector-jig coupling by fixing a plurality of interconnectors to a jig; a working table configured to receive the interconnector-jig coupling to fix the interconnectors to a solar cell; and a heat source configured to attach the interconnectors and the solar cell to each other by applying heat to the interconnectors and the solar cell, which are fixed to each other, wherein the jig is configured to be separated from the interconnectors prior to passing through the heat source, wherein the apparatus further comprises a cutter configured to cut the interconnectors of the interconnector-jig coupling before the interconnector-jig coupling is received at the working table or positioned on the solar cell.
A method comprising: receiving an incoming video stream; determining a position of a camera configured to capture video images of a participant; causing a representation of the incoming video stream, which includes representations of multiple other participants, to be overlaid upon the position of the camera by a head-mounted augmented reality display worn by the participant such that a focal point for the participant within the representation of the incoming video stream coincides with the position of the camera; determining that one of the multiple other participants is speaking based upon a direction from which sound originates relative to the respective positions of the multiple other participants within the incoming video stream; and determining the eye position of the other participant who is speaking in the incoming video stream such that the eyes of the other participant who is speaking are overlaid upon the position of the camera by the head-mounted augmented reality display. receiving an incoming video stream; determining a position of a camera configured to capture video images of a participant; causing a representation of the incoming video stream, which includes representations of multiple other participants, to be overlaid upon the position of the camera by a head-mounted augmented reality display worn by the participant such that a focal point for the participant within the representation of the incoming video stream coincides with the position of the camera; determining that one of the multiple other participants is speaking based upon a direction from which sound originates relative to the respective positions of the multiple other participants within the incoming video stream; and determining the eye position of the other participant who is speaking in the incoming video stream such that the eyes of the other participant who is speaking are overlaid upon the position of the camera by the head-mounted augmented reality display.
A method for the production of a recombinant protein, said method comprising culturing a mammalian host cell expressing said recombinant protein in cell culture medium supplemented, on day 5 after the start of the culture, with at least one feed comprising an effective amount of valeric acid, wherein the concentration of the valeric acid supplement in the cell culture medium is about 1 mM to 2 mM.
A method for evaluating performance of a speech enhancement algorithm, comprising: acquiring a first speech signal including noise and a second speech signal including noise, wherein the first speech signal is acquired from a near-end audio acquisition device close to a sound source, the second speech signal is acquired from a far-end audio acquisition device far from the sound source, and the near-end audio acquisition device is closer to the sound source than the far-end audio acquisition device; acquiring a pseudo-pure speech signal based on the first speech signal and the second speech signal, as a reference speech signal; enhancing the second speech signal by using a preset speech enhancement algorithm, to obtain a denoised speech signal to be tested; and acquiring a correlation coefficient between the reference speech signal and the denoised speech signal to be tested, wherein the correlation coefficient is used for evaluating the speech enhancement algorithm. acquiring a first speech signal including noise and a second speech signal including noise, wherein the first speech signal is acquired from a near-end audio acquisition device close to a sound source, the second speech signal is acquired from a far-end audio acquisition device far from the sound source, and the near-end audio acquisition device is closer to the sound source than the far-end audio acquisition device; acquiring a pseudo-pure speech signal based on the first speech signal and the second speech signal, as a reference speech signal; enhancing the second speech signal by using a preset speech enhancement algorithm, to obtain a denoised speech signal to be tested; and acquiring a correlation coefficient between the reference speech signal and the denoised speech signal to be tested, wherein the correlation coefficient is used for evaluating the speech enhancement algorithm.