mhurhangee/ep-ind-claims huggingface dataset:
A device on user equipment side in a wireless communication system, the device comprising: circuitry (202, 204, 206, 208, 210) configured to: determine whether a radio link problem has occurred in a first radio link between user equipment and a first node, the user equipment being simultaneously communicatively connected with the first node and a second node via the first radio link and a second radio link respectively; start a first timer when it has been detected that the radio link problem has occurred in the first radio link, wherein when the first timer expires, the user equipment considers it has been detected that a radio link failure event has occurred in the first radio link; and report, when it has been detected that the radio link problem has occurred in the first radio link, content comprising radio link information of the first radio link to the second node via the second radio link between the user equipment and the second node. determine whether a radio link problem has occurred in a first radio link between user equipment and a first node, the user equipment being simultaneously communicatively connected with the first node and a second node via the first radio link and a second radio link respectively; start a first timer when it has been detected that the radio link problem has occurred in the first radio link, wherein when the first timer expires, the user equipment considers it has been detected that a radio link failure event has occurred in the first radio link; and report, when it has been detected that the radio link problem has occurred in the first radio link, content comprising radio link information of the first radio link to the second node via the second radio link between the user equipment and the second node.
A surface grinding device of a pavement surface for grinding a surface of the pavement surface, comprising a rotating grinding body for grinding the surface, wherein the grinding body comprises a rotation shaft, and a plurality of blades provided on the rotation shaft, characterised in that each of the blades includes a substantially rectangular plate having a predetermined thickness, and arc grinding pieces provided on edges of both short sides of the rectangular plate, a shaft hole is formed in a center of the blade, and the rotation shaft is inserted into the shaft hole, the plurality of blades in the grinding body are deviated from and overlap with one another in a rotation direction of the grinding body such that the grinding pieces respectively provided on the adjacent blades are deviated from one another in the rotation direction, a width of the grinding piece is greater than a thickness of the plate and according to this configuration, when the grinding body rotates to grind a surface of the pavement surface, widths of the surface grinded by the grinding pieces of the adjacent blades overlap with each other by a predetermined overlap space.
An automated, computerized method for determining illumination information in an optical color image, comprising the steps of: identifying depth information in the optical color image; generating a linear mega-token for the optical color image as a function of the depth information; and utilizing the linear mega-token to analyze illumination flux in the image, wherein a linear mega-token is a linear token comprising several adjacent uniform tokens, wherein a uniform token is a connected region of the optical color image with pixel values that are constant within a pre-defined noise margin, wherein a linear token is a connected region of the optical color image wherein adjacent pixels of the region have differing color measurement values that fall within a cylinder in color space from a dark end to a bright end along a positive slope, wherein this cylinder is predicted by a bi-illuminant dichromatic reflection BIDR model, according to which the appearance of a single-color surface under all combinations of an incident illuminant and an ambient illuminant is represented by a BIDR cylinder in color space, wherein the linear mega-token comprises only adjacent tokens that fall within a BIDR cylinder for the linear token. identifying depth information in the optical color image; generating a linear mega-token for the optical color image as a function of the depth information; and utilizing the linear mega-token to analyze illumination flux in the image, wherein a linear mega-token is a linear token comprising several adjacent uniform tokens, wherein a uniform token is a connected region of the optical color image with pixel values that are constant within a pre-defined noise margin, wherein a linear token is a connected region of the optical color image wherein adjacent pixels of the region have differing color measurement values that fall within a cylinder in color space from a dark end to a bright end along a positive slope, wherein this cylinder is predicted by a bi-illuminant dichromatic reflection BIDR model, according to which the appearance of a single-color surface under all combinations of an incident illuminant and an ambient illuminant is represented by a BIDR cylinder in color space, wherein the linear mega-token comprises only adjacent tokens that fall within a BIDR cylinder for the linear token.
A coding apparatus comprising: a signal classification unit configured to determine a coding mode of a low-frequency signal of an input signal, based on characteristics of the input signal; a linear prediction coefficient coder configured to extract an LPC from the low-frequency signal of the input signal, and to quantize the LPC; a code excited linear prediction (CELP) coder configured to perform CELP coding on an LPC excitation signal of a low-frequency signal of the input signal extracted using the LPC when the coding mode of the low-frequency signal of the input signal is determined to be a CELP coding mode; a time domain extension coder configured to perform extension coding on a high-frequency signal of the input signal when CELP coding is performed on the LPC excitation signal; an audio coder configured to perform audio coding on the LPC excitation signal when the coding mode of the low-frequency signal of the input signal is determined to be an audio coding mode; and a frequency-domain extension coder configured to perform extension coding on the high-frequency signal of the input signal when audio coding is performed on the LPC excitation signal. a signal classification unit configured to determine a coding mode of a low-frequency signal of an input signal, based on characteristics of the input signal; a linear prediction coefficient coder configured to extract an LPC from the low-frequency signal of the input signal, and to quantize the LPC; a code excited linear prediction (CELP) coder configured to perform CELP coding on an LPC excitation signal of a low-frequency signal of the input signal extracted using the LPC when the coding mode of the low-frequency signal of the input signal is determined to be a CELP coding mode; a time domain extension coder configured to perform extension coding on a high-frequency signal of the input signal when CELP coding is performed on the LPC excitation signal; an audio coder configured to perform audio coding on the LPC excitation signal when the coding mode of the low-frequency signal of the input signal is determined to be an audio coding mode; and a frequency-domain extension coder configured to perform extension coding on the high-frequency signal of the input signal when audio coding is performed on the LPC excitation signal.
Device for fixing at least one elongate member (T, T'), in particular a cable, to a support, in particular a motor vehicle engine mount, this device comprising a foot for securing it to the support and at least one housing (100, 200) for receiving the or each elongate member bounded by a base (102, 202) and two uprights (104, 106, 206), each upright supporting a lug (110, 110', 210, 210') for holding the elongate member articulated on this upright, each lug being movable between a rest position facing toward the other lug so as to form a gap (l, l') for the passage of the elongate member, the transverse dimensions of which are smaller than those of the receiving housing (100, 200), and a holding position, wherein each lug (110, 110', 210, 210') is tilted toward the base (102, 202) so as to hold the elongate member in its housing, characterised in that each lug (110, 110', 210, 210') is adapted to move from its rest position to its holding position only when acted on by the elongate member (T, T'), which pushes back the lug upon insertion thereof into the receiving housing (100, 200), this device further comprising means (120, 120', 220, 220') for locking each lug in its holding position, said means for locking each lug (110, 110', 210, 210') comprising an arm (120, 120', 220, 220') extending said lug, each arm being adapted to be attached by clipping it onto a corresponding upright (104, 106, 206), the arms (120, 120', 220, 220') being disposed in quincunxes so that they have central symmetry, each arm (120, 120', 220, 220') being terminated by a detent (126, 126', 226, 226') adapted to cooperate with a complementary detent (128, 228') on the upright (104, 106, 206).
Vehicle pneumatic tire, in particular for use under winter driving conditions, having a tread with profile positives, for example profile blocks or tread strips, which are separated from one another by grooves that circulate in the circumferential direction, by transverse grooves and the like, and in which sipes with a small width (b) are formed, said sipes extending substantially in the axial direction, crossing through the profile positives, and being delimited by two sipe walls (5, 5'), each of which sipes has a depth of at least 70% of the profile depth (T p), wherein at least one of the sipe walls (5, 5') has a depression (6, 6') within the sipe, said depression increasing the water absorption capacity of the sipe, characterized in that the depression (6, 6') is formed as a local depression which is oriented in the axial direction and is located radially within a depth of 50% of the profile depth (T p) and is encircled at the edges by at least 2 mm of the sipe wall (5, 5').
An optical connector comprising: a connecting structure; an optical receiver located within the connecting structure; an optical transmitter located within the connecting structure; a dielectric structure within the connecting structure; and a heat sink located within the connecting structure, wherein: the heat sink is configured to conduct heat away from the optical receiver and the optical transmitter; the optical receiver and the optical transmitter are thermally connected to the heat sink; the heat sink comprises a first section and a second section separated from each other, the optical receiver being located within the first section and the optical transmitter being located within the second section and wherein the heat sink is movable along a surface of the dielectric structure, the optical connector further comprising: a first pin within the connecting structure and inserted into both the first section of the heat sink and the dielectric structure; and a second pin within the connecting structure and inserted into both the second section of the heat sink and the dielectric structure. a connecting structure; an optical receiver located within the connecting structure; an optical transmitter located within the connecting structure; a dielectric structure within the connecting structure; and a heat sink located within the connecting structure, wherein: the heat sink is configured to conduct heat away from the optical receiver and the optical transmitter; the optical receiver and the optical transmitter are thermally connected to the heat sink; the heat sink comprises a first section and a second section separated from each other, the optical receiver being located within the first section and the optical transmitter being located within the second section and wherein the heat sink is movable along a surface of the dielectric structure, the heat sink is configured to conduct heat away from the optical receiver and the optical transmitter; the optical receiver and the optical transmitter are thermally connected to the heat sink; the heat sink comprises a first section and a second section separated from each other, the optical receiver being located within the first section and the optical transmitter being located within the second section and wherein the heat sink is movable along a surface of the dielectric structure, the optical connector further comprising: a first pin within the connecting structure and inserted into both the first section of the heat sink and the dielectric structure; and a second pin within the connecting structure and inserted into both the second section of the heat sink and the dielectric structure. a first pin within the connecting structure and inserted into both the first section of the heat sink and the dielectric structure; and a second pin within the connecting structure and inserted into both the second section of the heat sink and the dielectric structure.
A method for detecting a leak in a line system having a distribution line, the first end of which can be closed with a first valve and at the second end of which at least one closable consumer (2,2') is arranged, having one pressure sensor, with which the pressure in the distribution line can be determined, and having at least one second valve (4,4'), that is arranged between the one pressure sensor and at least one of the closable consumers (2,2'), comprising the steps of: a) closing the first valve; b) determining a first pressure reduction rate with the one pressure sensor; c) closing the at least one second valve (4,4'); d) determining a second pressure reduction rate with the one pressure sensor; e) opening and again closing of either the previously closed first valve or of the at least one second valve (4,4'), when the determined first or second pressure reduction rate (PR1,PR2) exceeds a predetermined value and again determining the corresponding first or second pressure reduction rate (PR1,PR2); f) determining the region of the leak based on the determined pressure reduction rates (PR1,PR2). a) closing the first valve; b) determining a first pressure reduction rate with the one pressure sensor; c) closing the at least one second valve (4,4'); d) determining a second pressure reduction rate with the one pressure sensor; e) opening and again closing of either the previously closed first valve or of the at least one second valve (4,4'), when the determined first or second pressure reduction rate (PR1,PR2) exceeds a predetermined value and again determining the corresponding first or second pressure reduction rate (PR1,PR2); f) determining the region of the leak based on the determined pressure reduction rates (PR1,PR2).
A machine-implemented method, comprising: detecting one or more radio frequency, RF, samples with a device; determining burst data by identifying start and stop points of the one or more RF samples with a network management agent of the device; comparing time domain values for an individual burst of the burst data with time domain values of a predetermined RF device profile with the network management agent of the device; determining whether the time domain values for the individual burst match the time domain values of the predetermined RF device profile; determining a single carrier offset when the individual burst is offset from a scan centre frequency; shifting a frequency of the individual burst in the time domain when the single carrier offset is determined; comparing Fast Fourier Transform, FFT, values for the individual burst with FFT values of the predetermined RF device profile, if the predetermined RF device profile has the time domain values approximately matching the time domain values for the individual burst with the network management agent of the device; generating a human-readable result indicating whether the individual burst is to be assigned to one of the predetermined RF device profiles with the network management agent of the device, wherein the human-readable result includes a difference vector in graphical form of a difference between FFT values for the individual burst and FFT values of the selected predetermined RF device profile; and assigning the FFT values for the individual burst to the predetermined RF device profile based on this difference. detecting one or more radio frequency, RF, samples with a device; determining burst data by identifying start and stop points of the one or more RF samples with a network management agent of the device; comparing time domain values for an individual burst of the burst data with time domain values of a predetermined RF device profile with the network management agent of the device; determining whether the time domain values for the individual burst match the time domain values of the predetermined RF device profile; determining a single carrier offset when the individual burst is offset from a scan centre frequency; shifting a frequency of the individual burst in the time domain when the single carrier offset is determined; comparing Fast Fourier Transform, FFT, values for the individual burst with FFT values of the predetermined RF device profile, if the predetermined RF device profile has the time domain values approximately matching the time domain values for the individual burst with the network management agent of the device; generating a human-readable result indicating whether the individual burst is to be assigned to one of the predetermined RF device profiles with the network management agent of the device, wherein the human-readable result includes a difference vector in graphical form of a difference between FFT values for the individual burst and FFT values of the selected predetermined RF device profile; and assigning the FFT values for the individual burst to the predetermined RF device profile based on this difference.
A pulping apparatus for mixing and working a mixture of a waste material and a liquid, the apparatus comprising a container and a rotor, wherein the rotor is placed with a rotational axis extending in an axial direction perpendicularly to a container side, the rotor comprising a mounting part which is rotational symmetric around the rotational axis of the rotor and which is placed for rotating with an axial spacing to the container side, the pulping apparatus further comprising a protective collar arranged on the container side so as to radially surround the mounting part and a rotor plate placed on top of the mounting part so as to rotate over the protective collar, characterized in that the rotor plate comprises a ring member placed to radially surround the protective collar.
A contactor device comprising: a contact arrangement, which includes at least one moveable bus bar (106, 108) and at least one fixed bus bar (102, 104), wherein the at least one moveable bus bar (106, 108) has a first contact region and the at least one fixed bus bar (102, 104) has a second contact region; at least one actuation element, which is configured to change a state of the contactor device at least to and from an open state, and to and from a closed state, wherein in the open state the first contact region is electrically isolated from the second contact region, and in the closed state the first contact region is conductively coupled to the second contact region; wherein the contact arrangement comprises a first current sensing element with a first predetermined resistance; characterised in that the first current sensing element is integrally formed with one of the bus bars (102, 104, 106, 108) included in the contact arrangement. a contact arrangement, which includes at least one moveable bus bar (106, 108) and at least one fixed bus bar (102, 104), wherein the at least one moveable bus bar (106, 108) has a first contact region and the at least one fixed bus bar (102, 104) has a second contact region; at least one actuation element, which is configured to change a state of the contactor device at least to and from an open state, and to and from a closed state, wherein in the open state the first contact region is electrically isolated from the second contact region, and in the closed state the first contact region is conductively coupled to the second contact region; wherein the contact arrangement comprises a first current sensing element with a first predetermined resistance; characterised in that the first current sensing element is integrally formed with one of the bus bars (102, 104, 106, 108) included in the contact arrangement.
A heat sink, comprising: a base having a first surface in a first plane configured to contact a system on chip, SoC, located on a circuit board; a plurality of heat transfer members (110, 210) connected to and extending from the base, wherein the plurality of heat transfer members are configured to extend along a longitudinal length in a second plane having a first spacing from the first plane, and wherein the plurality of heat transfer members respectively include opposing internal walls that define a second spacing between the plurality of heat transfer members; and an enclosure at least partially surrounding the plurality of heat transfer members, including: a proximal panel positioned on a first side of the plurality of heat transfer members and configured to face the circuit board; a distal panel on a second side of the plurality of heat transfer members, wherein the second side is opposite from the first side; and wherein the proximal panel and the distal panel both longitudinally extend from respective near ends adjacent to the base to respective far ends away from the base, wherein the respective far ends define an opening at an end of the heat transfer members. a base having a first surface in a first plane configured to contact a system on chip, SoC, located on a circuit board; a plurality of heat transfer members (110, 210) connected to and extending from the base, wherein the plurality of heat transfer members are configured to extend along a longitudinal length in a second plane having a first spacing from the first plane, and wherein the plurality of heat transfer members respectively include opposing internal walls that define a second spacing between the plurality of heat transfer members; and an enclosure at least partially surrounding the plurality of heat transfer members, including: a proximal panel positioned on a first side of the plurality of heat transfer members and configured to face the circuit board; a distal panel on a second side of the plurality of heat transfer members, wherein the second side is opposite from the first side; and wherein the proximal panel and the distal panel both longitudinally extend from respective near ends adjacent to the base to respective far ends away from the base, wherein the respective far ends define an opening at an end of the heat transfer members. a proximal panel positioned on a first side of the plurality of heat transfer members and configured to face the circuit board; a distal panel on a second side of the plurality of heat transfer members, wherein the second side is opposite from the first side; and wherein the proximal panel and the distal panel both longitudinally extend from respective near ends adjacent to the base to respective far ends away from the base, wherein the respective far ends define an opening at an end of the heat transfer members.