mhurhangee/ep-ind-claims huggingface dataset:
Polypeptide selected from the group consisting of the full length human syndecan-4, the cytoplasmic domain of human syndecan-4, and a fragment of human syndecan-4 cytoplasmic domain comprising the serine residue at position 179 of at least 13 amino acids in length, wherein said Ser179 residue of syndecan-4 is in phosphorylated state or modified to a phosphomimetic amino acid residue, for use in the treatment of a disease selected from the group consisting of cancer, Down syndrome, Wiskott-Aldrich syndrome, leukemia, ischemia or excitotoxicity, polyglutamine diseases, traumatic nerve injury, amyotrophic lateral sclerosis, neuropsychiatric disorder and neurodevelopmental disorders, wherein said polypeptide decreases the activity of Rac1.
Luminescence diode component, comprising a housing having a housing cavity, within which at least one chip mounting region for a luminescence diode chip is arranged and which has an output opening and having a luminescence diode chip mounted on the chip mounting region, wherein - the housing has, at least at a vertical distance from the chip mounting region, inner walls which laterally bound the housing cavity and in a lateral direction running parallel to a chip mounting plane of the chip mounting region, are at a maximum distance of less than or equal to 500 μm from the chip mounting region, and - a first part of an outer surface of the housing which adjoins the output opening of the housing cavity is provided with a shielding layer suitable for shielding a spectral range of the electromagnetic radiation emitted by the luminescence diode chip, characterized in that - a second part of the outer surface which adjoins the output opening is free of the shielding layer. - the housing has, at least at a vertical distance from the chip mounting region, inner walls which laterally bound the housing cavity and in a lateral direction running parallel to a chip mounting plane of the chip mounting region, are at a maximum distance of less than or equal to 500 μm from the chip mounting region, and - a first part of an outer surface of the housing which adjoins the output opening of the housing cavity is provided with a shielding layer suitable for shielding a spectral range of the electromagnetic radiation emitted by the luminescence diode chip, - a second part of the outer surface which adjoins the output opening is free of the shielding layer.
A playback device (30A, 30B) comprising: a communication portion configured to communicate data with a server device or an other playback device (30A, 30B); a memory configured to memorize content data received from the server device through the communication portion; a playback portion configured to play back the content data that is memorized in the memory; said playback device (30A, 30B) being characterised by a synchronized playback control portion configured to, upon receiving a synchronized playback start command to play back the content data in synchronization by the playback device (30A, 30B) (S 120) and an other playback device (30A, 30B) while the content data is being played back by the playback portion, transmit, to the other playback device (30A, 30B) through the communication portion, information that pertains to the content data (S 160) and information that indicates a synchronized playback start time obtained by adding a predetermined additional time to an elapsed playback time for the content data (S 180); wherein, after a playback preparation completion notification that indicates completion of playback preparation of the content data is received from the other playback device (30A, 30B) through the communication portion, and when the elapsed playback time for the content data reaches the synchronized playback start time (S 220), the synchronized playback control portion is configured to transmit a playback start command for the content data to the other playback device through the communication portion (S 230). a communication portion configured to communicate data with a server device or an other playback device (30A, 30B); a memory configured to memorize content data received from the server device through the communication portion; a playback portion configured to play back the content data that is memorized in the memory; said playback device (30A, 30B) being characterised by a synchronized playback control portion configured to, upon receiving a synchronized playback start command to play back the content data in synchronization by the playback device (30A, 30B) (S 120) and an other playback device (30A, 30B) while the content data is being played back by the playback portion, transmit, to the other playback device (30A, 30B) through the communication portion, information that pertains to the content data (S 160) and information that indicates a synchronized playback start time obtained by adding a predetermined additional time to an elapsed playback time for the content data (S 180); wherein, after a playback preparation completion notification that indicates completion of playback preparation of the content data is received from the other playback device (30A, 30B) through the communication portion, and when the elapsed playback time for the content data reaches the synchronized playback start time (S 220), the synchronized playback control portion is configured to transmit a playback start command for the content data to the other playback device through the communication portion (S 230).
A manufacturing apparatus of a long fiber composite material, comprising: a main body where an inlet through which a plurality of fiber bundles are penetrated is formed at one side and an outlet through which the fiber bundles are discharged is formed at the other side; a plurality of first through-hole plates (300, 310, 330, 350) that are arranged in parallel with each other along a first direction in the main body and having a plurality of through-holes through which the plurality of fiber bundles are penetrated formed therein; and a second through-hole plate (500, 510, 530) that is disposed between a pair of first through-hole plates (300, 310, 330, 350) that are adjacent to each other among the plurality of first through-hole plates (300, 310, 330, 350), and through which the plurality of fiber bundles penetrated through the first through-hole plates (300, 310, 330, 350) are penetrated, characterised in that a long hole through which the plurality of fiber bundles are penetrated is provided in the second through-hole plate (500,510, 530), and a plurality of protrusions are formed in an inner wall of each long hole. a main body where an inlet through which a plurality of fiber bundles are penetrated is formed at one side and an outlet through which the fiber bundles are discharged is formed at the other side; a plurality of first through-hole plates (300, 310, 330, 350) that are arranged in parallel with each other along a first direction in the main body and having a plurality of through-holes through which the plurality of fiber bundles are penetrated formed therein; and a second through-hole plate (500, 510, 530) that is disposed between a pair of first through-hole plates (300, 310, 330, 350) that are adjacent to each other among the plurality of first through-hole plates (300, 310, 330, 350), and through which the plurality of fiber bundles penetrated through the first through-hole plates (300, 310, 330, 350) are penetrated, characterised in that a long hole through which the plurality of fiber bundles are penetrated is provided in the second through-hole plate (500,510, 530), and a plurality of protrusions are formed in an inner wall of each long hole.
A folded camera module, comprising: a) a lens module having a lens optical axis; b) an optical path folding element, OPFE, for folding light from a first optical path to a second optical path towards an image sensor, the second optical path being along the lens optical axis; c) a lens actuation sub-assembly configured to actuate the lens module to be moved for auto-focus, AF, along a first direction substantially parallel to the second optical path and to be moved for optical image stabilization, OIS, along a second direction substantially orthogonal to both the first and second optical paths to compensate for tilt of the folded camera module around the first direction; wherein the lens actuation sub-assembly is characterized in that it comprises a lens support plate carrying the lens module and a plurality of springs (502a, 502b, 502c, 502d, 508a, 508b) mechanically coupled to the lens support plate, wherein the plurality of springs provides overall low stiffness to movement of the lens module in the first and second directions and high stiffness of the lens module to torsion, such that a ratio between natural frequencies arising from the high stiffness to torsion and the low stiffness to movement in each of the first and second directions is greater than 2. a) a lens module having a lens optical axis; b) an optical path folding element, OPFE, for folding light from a first optical path to a second optical path towards an image sensor, the second optical path being along the lens optical axis; c) a lens actuation sub-assembly configured to actuate the lens module to be moved for auto-focus, AF, along a first direction substantially parallel to the second optical path and to be moved for optical image stabilization, OIS, along a second direction substantially orthogonal to both the first and second optical paths to compensate for tilt of the folded camera module around the first direction;
A computer-implemented method comprising: deploying at least one relay server within a service subnetwork of a service provider network, the service subnetwork being inside a firewall connecting the service subnetwork to the Internet, the method further comprising: at a streaming server outside the firewall, receiving a request from a first mobile device to establish a real-time communication session with a second mobile device, at least one of the first and second mobile device being located inside the firewall; in response to receiving the request, the streaming server providing the first and second mobile device with networking information for connecting to the at least one relay server within the service subnetwork of the service provider network; and in response to the streaming server providing the first and second mobile device with said networking information, the first and second mobile device connecting to the at least one relay server, and the at least one relay server establishing the real-time communication session through the at least one relay server in response to the connection with the first and second mobile device. deploying at least one relay server within a service subnetwork of a service provider network, the service subnetwork being inside a firewall connecting the service subnetwork to the Internet, the method further comprising: at a streaming server outside the firewall, receiving a request from a first mobile device to establish a real-time communication session with a second mobile device, at least one of the first and second mobile device being located inside the firewall; in response to receiving the request, the streaming server providing the first and second mobile device with networking information for connecting to the at least one relay server within the service subnetwork of the service provider network; and in response to the streaming server providing the first and second mobile device with said networking information, the first and second mobile device connecting to the at least one relay server, and the at least one relay server establishing the real-time communication session through the at least one relay server in response to the connection with the first and second mobile device. at a streaming server outside the firewall, receiving a request from a first mobile device to establish a real-time communication session with a second mobile device, at least one of the first and second mobile device being located inside the firewall; in response to receiving the request, the streaming server providing the first and second mobile device with networking information for connecting to the at least one relay server within the service subnetwork of the service provider network; and in response to the streaming server providing the first and second mobile device with said networking information, the first and second mobile device connecting to the at least one relay server, and the at least one relay server establishing the real-time communication session through the at least one relay server in response to the connection with the first and second mobile device.
A method for generating frequency estimates between a client clock and multiple server clocks, the method comprising the steps of: receiving at least two protocol data units, PDUs, from each of at least two server clocks, wherein each PDU includes a plurality of time stamps; extracting the plurality of time stamps from each PDU; and generating a frequency estimate between the client clock and each of the server clocks by: computing a time offset between the client clock and the server clock for each PDU received from the server clock, the method further characterized by performing minimum offset filtering,, MOF, on the computed time offsets to determine a minimum measurement offset estimate, and generating a frequency estimate between the client clock and the server clock by performing steps including: determining a minimum smoothed measurement offset estimate using the determined minimum measurement offset estimate; converting the determined minimum smoothed measurement offset estimate to a minimum smoothed frequency estimate; and generating the frequency estimate using the minimum smoothed frequency estimate. receiving at least two protocol data units, PDUs, from each of at least two server clocks, wherein each PDU includes a plurality of time stamps; extracting the plurality of time stamps from each PDU; and generating a frequency estimate between the client clock and each of the server clocks by: computing a time offset between the client clock and the server clock for each PDU received from the server clock, the method further characterized by performing minimum offset filtering,, MOF, on the computed time offsets to determine a minimum measurement offset estimate, and generating a frequency estimate between the client clock and the server clock by performing steps including: determining a minimum smoothed measurement offset estimate using the determined minimum measurement offset estimate; converting the determined minimum smoothed measurement offset estimate to a minimum smoothed frequency estimate; and generating the frequency estimate using the minimum smoothed frequency estimate. computing a time offset between the client clock and the server clock for each PDU received from the server clock, the method further characterized by performing minimum offset filtering,, MOF, on the computed time offsets to determine a minimum measurement offset estimate, and generating a frequency estimate between the client clock and the server clock by performing steps including: determining a minimum smoothed measurement offset estimate using the determined minimum measurement offset estimate; converting the determined minimum smoothed measurement offset estimate to a minimum smoothed frequency estimate; and generating the frequency estimate using the minimum smoothed frequency estimate. determining a minimum smoothed measurement offset estimate using the determined minimum measurement offset estimate; converting the determined minimum smoothed measurement offset estimate to a minimum smoothed frequency estimate; and generating the frequency estimate using the minimum smoothed frequency estimate.
A tire comprising a tread portion which has an asymmetric tread pattern and which has a designated mounting direction to a vehicle, wherein the tread portion has an outer tread end (Teo) that is positioned outward of a tire equator on an outer side of the vehicle when mounted to the vehicle, an inner tread end (Tei) that is positioned inward of the tire equator on an inner side of the vehicle when mounted to the vehicle, a plurality (3A, 3B, 3C) of circumferential grooves that extend continuously in a tire circumferential direction, and a plurality (4A, 4B, 4C, 4D) of land portions that are defined by the circumferential grooves, the circumferential grooves include an outer circumferential groove that extends adjacently to the tire equator in a region closer to the outer tread end (Teo) than the tire equator is, the land portions include an outer shoulder land portion, the outer shoulder land portion has a first outer lateral groove that extends inward from the outer tread end (Teo) in the tire axial direction and terminates in the outer shoulder land portion, and an angle of the first outer lateral groove relative to the tire axial direction at a terminating position in the outer shoulder land portion is 0 to 20°, characterized in that the outer shoulder land portion is defined between the outer circumferential groove and the outer tread end (Teo) so as to continuously extend therebetween in a tire axial direction, and has the largest width (Wo) in the tire axial direction among the land portions. a tread portion which has an asymmetric tread pattern and which has a designated mounting direction to a vehicle, wherein the tread portion has an outer tread end (Teo) that is positioned outward of a tire equator on an outer side of the vehicle when mounted to the vehicle, an inner tread end (Tei) that is positioned inward of the tire equator on an inner side of the vehicle when mounted to the vehicle, a plurality (3A, 3B, 3C) of circumferential grooves that extend continuously in a tire circumferential direction, and a plurality (4A, 4B, 4C, 4D) of land portions that are defined by the circumferential grooves, the circumferential grooves include an outer circumferential groove that extends adjacently to the tire equator in a region closer to the outer tread end (Teo) than the tire equator is, the land portions include an outer shoulder land portion, the outer shoulder land portion has a first outer lateral groove that extends inward from the outer tread end (Teo) in the tire axial direction and terminates in the outer shoulder land portion, and an angle of the first outer lateral groove relative to the tire axial direction at a terminating position in the outer shoulder land portion is 0 to 20°, characterized in that the outer shoulder land portion is defined between the outer circumferential groove and the outer tread end (Teo) so as to continuously extend therebetween in a tire axial direction, and has the largest width (Wo) in the tire axial direction among the land portions.
A method for processing a starting material containing organic components which comprises one or more of diapers and incontinence materials, wherein the starting material is introduced into autoclave and treated under high pressure and high temperature conditions to obtain one or more residual flows, characterised in that the method comprises the following steps: i) transferring the aforesaid starting material containing organic components to an autoclave provided with a stirring mechanism provided with one or more elements that rotate along the inner wall of the autoclave, ii) heating the aforesaid starting material containing organic components in the aforesaid autoclave while driving the stirring mechanism at a speed in the range of 5-50 rpm, using a temperature of at least 200 °C and a pressure of at least 20 bar, iii) maintaining the conditions of step ii) for a period of at least 0.1 hour, iv) removing the one or more residual flows thus formed from the aforesaid autoclave. i) transferring the aforesaid starting material containing organic components to an autoclave provided with a stirring mechanism provided with one or more elements that rotate along the inner wall of the autoclave, ii) heating the aforesaid starting material containing organic components in the aforesaid autoclave while driving the stirring mechanism at a speed in the range of 5-50 rpm, using a temperature of at least 200 °C and a pressure of at least 20 bar, iii) maintaining the conditions of step ii) for a period of at least 0.1 hour, iv) removing the one or more residual flows thus formed from the aforesaid autoclave.
An attitude control unit, which is designed to be: • installed on a platform to control the attitude of the latter; and • coupled to a Control Moment Gyroscope assembly (4,6,120), that is installed on board said platform and comprises four or more Control Moment Gyroscopes (3,41,42,43,44,61,62,63,64); said attitude control unit being configured to: • select, on the basis of a reference attitude trajectory of the platform, three Control Moment Gyroscopes (3,41,42,43,44,61,62,63,64) to be simultaneously operated while keeping the unselected Control Moment Gyroscope(s) (3,41,42,43,44,61,62,63,64) stationary; • compute, on the basis of the reference attitude trajectory and of a current attitude of the platform, an overall angular momentum to be provided by the Control Moment Gyroscope assembly (4,6,120); • compute, on the basis of the overall angular momentum to be provided by the Control Moment Gyroscope assembly (4,6,120) and of an angular momentum of the unselected Control Moment Gyroscope(s) (3,41,42,43,44,61,62,63,64), a triplet-related angular momentum to be provided by the three selected Control Moment Gyroscopes (3,41,42,43,44,61,62,63,64); and • simultaneously operate the three selected Control Moment Gyroscopes (3,41,42,43,44,61,62,63,64) so as to cause these latter to provide said triplet-related angular momentum computed, while keeping the unselected Control Moment Gyroscope(s) (3,41,42,43,44,61,62,63,64) stationary. • installed on a platform to control the attitude of the latter; and • coupled to a Control Moment Gyroscope assembly (4,6,120), that is installed on board said platform and comprises four or more Control Moment Gyroscopes (3,41,42,43,44,61,62,63,64); • select, on the basis of a reference attitude trajectory of the platform, three Control Moment Gyroscopes (3,41,42,43,44,61,62,63,64) to be simultaneously operated while keeping the unselected Control Moment Gyroscope(s) (3,41,42,43,44,61,62,63,64) stationary; • compute, on the basis of the reference attitude trajectory and of a current attitude of the platform, an overall angular momentum to be provided by the Control Moment Gyroscope assembly (4,6,120); • compute, on the basis of the overall angular momentum to be provided by the Control Moment Gyroscope assembly (4,6,120) and of an angular momentum of the unselected Control Moment Gyroscope(s) (3,41,42,43,44,61,62,63,64), a triplet-related angular momentum to be provided by the three selected Control Moment Gyroscopes (3,41,42,43,44,61,62,63,64); and • simultaneously operate the three selected Control Moment Gyroscopes (3,41,42,43,44,61,62,63,64) so as to cause these latter to provide said triplet-related angular momentum computed, while keeping the unselected Control Moment Gyroscope(s) (3,41,42,43,44,61,62,63,64) stationary.