mhurhangee/ep-ind-claims huggingface dataset:
A processor comprising: fetch circuitry to fetch a compress instruction; decode circuitry to decode the compress instruction having fields to specify locations of a source vector having N single-precision formatted elements, and a compressed vector having N neural half-precision formatted elements; execution circuitry to execute the compress instruction by: converting each element of the source vector into the NHP format; rounding each converted element according to a rounding mode; and writing each rounded element to a corresponding compressed vector element; wherein the NHP format comprises seven significand bits, and eight exponent bits; and wherein the source and compressed vectors are each either in memory or in registers. fetch circuitry to fetch a compress instruction; decode circuitry to decode the compress instruction having fields to specify locations of a source vector having N single-precision formatted elements, and a compressed vector having N neural half-precision formatted elements; execution circuitry to execute the compress instruction by: converting each element of the source vector into the NHP format; rounding each converted element according to a rounding mode; and writing each rounded element to a corresponding compressed vector element; converting each element of the source vector into the NHP format; rounding each converted element according to a rounding mode; and writing each rounded element to a corresponding compressed vector element; wherein the NHP format comprises seven significand bits, and eight exponent bits; and wherein the source and compressed vectors are each either in memory or in registers.
A method for gesture detection, applicable to a mobile terminal and comprising: transmitting a radar wave; receiving an echo returned in response to the radar wave; determining a first relative motion parameter of an object to be detected in an influence scope of the radar wave relative to the mobile terminal based on a transmitting parameter for the radar wave and a receiving parameter for the echo; detecting a terminal motion parameter of the mobile terminal; correcting the first relative motion parameter based on the terminal motion parameter to obtain a second relative motion parameter; and performing machine learning on the second relative motion parameter through a preset gesture recognition model to obtain a gesture recognition result, characterized in that the terminal motion parameter comprises an attitude parameter, and correcting the first relative motion parameter based on the terminal motion parameter to obtain the second relative motion parameter comprises: determining a present mode of the mobile terminal based on the attitude parameter of the mobile terminal, wherein the present mode of the mobile terminal comprises a landscape mode or a portrait mode; determining a present coordinate system corresponding to the present mode; and mapping the first relative motion parameter into the present coordinate system to obtain the second relative motion parameter. transmitting a radar wave; receiving an echo returned in response to the radar wave; determining a first relative motion parameter of an object to be detected in an influence scope of the radar wave relative to the mobile terminal based on a transmitting parameter for the radar wave and a receiving parameter for the echo; detecting a terminal motion parameter of the mobile terminal; correcting the first relative motion parameter based on the terminal motion parameter to obtain a second relative motion parameter; and performing machine learning on the second relative motion parameter through a preset gesture recognition model to obtain a gesture recognition result, characterized in that the terminal motion parameter comprises an attitude parameter, and correcting the first relative motion parameter based on the terminal motion parameter to obtain the second relative motion parameter comprises: determining a present mode of the mobile terminal based on the attitude parameter of the mobile terminal, wherein the present mode of the mobile terminal comprises a landscape mode or a portrait mode; determining a present coordinate system corresponding to the present mode; and determining a present mode of the mobile terminal based on the attitude parameter of the mobile terminal, wherein the present mode of the mobile terminal comprises a landscape mode or a portrait mode; determining a present coordinate system corresponding to the present mode; and mapping the first relative motion parameter into the present coordinate system to obtain the second relative motion parameter.
Cooking appliance with an appliance muffle, in which at least one accessory part (11, 59) is held on at least one muffle wall (9, 17), which has one support bolt (27, 54, 61) which, for retaining the accessory part (11, 59), is guided through an installation opening, characterised in that, on the inside of the oven a wall element is provided, in which the installation opening for the support bolt (27, 54, 61) is embodied and the wall element has an installation flange spaced apart from the muffle wall (9, 17), in which the installation opening is embodied.
A method of operating a first cellular telephone that is coupled to a second cellular telephone over a connection, the method comprising: delivering power to the second cellular telephone from the first cellular telephone over the connection; determining, at the first cellular telephone, whether power is being transferred from the second cellular telephone to the first cellular telephone over the connection; and preventing, at the first cellular telephone, the delivery of power to the second cellular telephone in response to determining that power is being transferred from the second cellular telephone to the first cellular telephone over the connection; the method being characterized by: diverting, with control circuitry at the first cellular telephone, power delivered to the first cellular telephone over a path that is separate from the connection by providing a control signal to a sink transistor in response to detecting that the second cellular telephone is delivering power to the first cellular telephone over the connection. delivering power to the second cellular telephone from the first cellular telephone over the connection; determining, at the first cellular telephone, whether power is being transferred from the second cellular telephone to the first cellular telephone over the connection; and preventing, at the first cellular telephone, the delivery of power to the second cellular telephone in response to determining that power is being transferred from the second cellular telephone to the first cellular telephone over the connection;
A matrix composition capable of forming an emulsion/micro-emulsion/dispersion, free of alkyl pyrrolidone and alkoxylated alcohol, consisting of, by weight: (a) 1-50% of a straight long chain substituted amide; (b) 1-30% of anionic emulsifier; (d) up to 90% of non-ionic emulsifier; and wherein (a) is N,N-dimethyl octanamide, (b) is DOSS (sodium dioctyl sulfosuccinate) and (d) is an ethoxylate castor oil. (a) 1-50% of a straight long chain substituted amide; (b) 1-30% of anionic emulsifier; (d) up to 90% of non-ionic emulsifier; and
Ski simulator comprising - an arched base for engaging a ground support plane with a curved surface the surface having concavity facing upward, so that the surface can rock and roll on the support plane from one side of its to the other returning toward its center, - two platforms, each capable of supporting a foot of a user, that are - pivotably connected to the base so as to oscillate around an oscillation axis, said axis being perpendicular to the rocking direction of the base characterized in that, said two platforms are also connected slidingly to the base so that the oscillation axis of each can move parallel to the rocking direction of the base, the platforms being configured so as to remain substantially parallel to the support plane when the user, by varying the load on the feet, makes the arched base rock. - an arched base for engaging a ground support plane with a curved surface the surface having concavity facing upward, so that the surface can rock and roll on the support plane from one side of its to the other returning toward its center, - two platforms, each capable of supporting a foot of a user, that are - pivotably connected to the base so as to oscillate around an oscillation axis, said axis being perpendicular to the rocking direction of the base characterized in that, said two platforms are also connected slidingly to the base so that the oscillation axis of each can move parallel to the rocking direction of the base, the platforms being configured so as to remain substantially parallel to the support plane when the user, by varying the load on the feet, makes the arched base rock.
A pre-sintered or fully-sintered blank for use for the production of a dental restoration, such as a dental framework, crown, partial crown, bridge, cap, veneer, abutment, pin construction, in particular multi-element bridge, consisting of a ceramic material which contains zirconium dioxide doped with yttrium oxide (Y2O3), when viewed across its height has layers of different compositions, wherein material of a first layer differs from material of a second layer in terms of color and proportions of stabilized crystal forms present at room temperature, wherein the ratio of the tetragonal phase to the cubic phase of the zirconium dioxide should be ≥1 in the first layer as well as in the second layer after pre-sintering, wherein the zirconium dioxide has at least a 95% tetragonal crystal form in the first layer and between 51% and 80% in the second layer, and wherein the blank has at least three layers, of which one is a middle layer that extends over at least 1/10 H to 1/5 H of the total height H of the blank, and which is formed from a material of the first layer and the second layer; and wherein the zirconium dioxide is doped with yttrium oxide, wherein the percentage of yttrium oxide in the first layer is between 4.5wt% and 7.0wt %and in the second layer is between 7.0wt % and 9.5wt%, such that the percentage of yttrium oxide in the first layer is lower than in the second layer.
A device for monitoring and in particular for controlling a laser cutting process on a workpiece, comprising: an image capturing apparatus for capturing an image of a region of the workpiece to be monitored, which in particular comprises a region of interaction (22, 23, 31) of a laser beam with the workpiece, and an evaluation apparatus for detecting material boundaries (K1.1 to K6.1, K1.2 to K6.2, K3; K4), in particular edges (K1.1 to K6.1, K1.2 to K6.2, K4) of the workpiece, by using the captured image, wherein the evaluation apparatus is designed to determine at least one characteristic value of the laser cutting process by using a geometric relationship between at least two of the detected material boundaries (K1.1 to K6.1, K1.2 to K6.2, K4) and/or by using the region of interaction (22, 23, 31), wherein the evaluation apparatus is designed to detect cut edges (K1.1, K1.2) formed during the laser cutting process as material boundaries and to determine a gap center of the cut gap as characteristic value, and characterized in that the evaluation apparatus is designed to determine a gap center in a further cut gap which does not run parallel to the first cut gap and, by using the two gap centers (25, 26), to determine a tool center point of the laser cutting process in a plane (X, Y) parallel to the workpiece. an image capturing apparatus for capturing an image of a region of the workpiece to be monitored, which in particular comprises a region of interaction (22, 23, 31) of a laser beam with the workpiece, and an evaluation apparatus for detecting material boundaries (K1.1 to K6.1, K1.2 to K6.2, K3; K4), in particular edges (K1.1 to K6.1, K1.2 to K6.2, K4) of the workpiece, by using the captured image, wherein the evaluation apparatus is designed to determine at least one characteristic value of the laser cutting process by using a geometric relationship between at least two of the detected material boundaries (K1.1 to K6.1, K1.2 to K6.2, K4) and/or by using the region of interaction (22, 23, 31), wherein the evaluation apparatus is designed to detect cut edges (K1.1, K1.2) formed during the laser cutting process as material boundaries and to determine a gap center of the cut gap as characteristic value, and characterized in that the evaluation apparatus is designed to determine a gap center in a further cut gap which does not run parallel to the first cut gap and, by using the two gap centers (25, 26), to determine a tool center point of the laser cutting process in a plane (X, Y) parallel to the workpiece.
A device retention mechanism (134, 1534) comprising: a base; retaining flanges (304A, 304B); pivots (306A, 306B) coupling the retaining flanges (304A, 304B) to the base; locking plates (308A, 308B; 1508A, 1508B) coupled to the retaining flanges (304A, 304B); locking plate apertures (316, 316B; 1516A, 1516B) configured to receive the locking plates (308A, 308B; 1508A, 1508B); and a device removal assist card (112, 812, 832) configured to prevent the locking plates (308A, 308B; 1508A, 1508B) from entering into the locking plate apertures (316, 316B; 1516A, 1516B). a base; retaining flanges (304A, 304B); pivots (306A, 306B) coupling the retaining flanges (304A, 304B) to the base; locking plates (308A, 308B; 1508A, 1508B) coupled to the retaining flanges (304A, 304B); locking plate apertures (316, 316B; 1516A, 1516B) configured to receive the locking plates (308A, 308B; 1508A, 1508B); and a device removal assist card (112, 812, 832) configured to prevent the locking plates (308A, 308B; 1508A, 1508B) from entering into the locking plate apertures (316, 316B; 1516A, 1516B).
A method for producing an alkoxyhydrosilane, comprising a reaction of a halohydrosilane represented by formula: H-SiR 2 c (CR 1 3-b Y b) a X 3-a-c wherein each R 1 is independently a hydrogen atom or substituted or unsubstituted C 1-20 hydrocarbon group; each R 2 is independently a substituted or unsubstituted C 1-20 hydrocarbon group; each X is independently a halogen atom; Y is selected from a halogen atom, -OR 3, -NR 4 R 5, -N=R 6, -SR 7 (wherein R 3, R 4, R 5, and R 7 are each a hydrogen atom or C 1-20 substituted or unsubstituted hydrocarbon group, and R 6 is a divalent C 1-20 substituted or unsubstituted hydrocarbon group), a C 1-20 perfluoroalkyl group, and a cyano group; a is 1 or 2, b is 1, 2 or 3, and c is 1 or 0, provided that a+c is not more than 2, with an orthoester represented by formula: R 9 -C-(OR 8) 3 wherein R 8 s are substituted or unsubstituted C 1-20 hydrocarbon groups, and R 9 is hydrogen or a substituted or unsubstituted hydrocarbon group, at a molar ratio of the orthoester to Xs of the halohydrosilane of constantly not less than 1, to produce the alkoxyhydrosilane represented by formula: H-SiR 2 c (CR 1 3-b Y b) a (OR 8) 3-a-c wherein R 1, R 2, R 8, Y, a, b, and c are as defined above, and wherein the halohydrosilane is added to the orthoester.
An electric current measuring apparatus comprising: a signal processing circuit which includes at least an optical fiber for a sensor, a polarization separating unit, a Faraday rotator, a light source, and a photoelectric conversion element, wherein the optical fiber for a sensor is provided around the periphery of an electrical conductor through which an electric current to be measured flows, and has one end at which linearly polarized light is incident and the other end at which the incident linearly polarized light is reflected, the polarization separating unit is provided at the one end of the optical fiber for a sensor, the Faraday rotator is disposed between the one end of the optical fiber for a sensor and the polarization separating unit, characterized in that the Faraday rotation angle of the Faraday rotator at the time of magnetic saturation is set to degrees of 22.5° + α° at a temperature of 23°C, a curve of temperature characteristics of a ratio error in a measurement value of an electric current to be measured, output from the signal processing circuit is shifted to a high-temperature side by adjusting the Faraday rotation angle, such that the fluctuation range of the ratio error in the measurement value of the measured electric current output from the signal processing circuit is set within a range of ± 0.5%, said fluctuation range being decreased compared to a corresponding fluctuation range at a Faraday rotation angle of 22.5°, and a temperature range, in which the fluctuation range is set within a range of ±0.5%, is between -20°C or higher and 80°C or lower. a signal processing circuit which includes at least an optical fiber for a sensor, a polarization separating unit, a Faraday rotator, a light source, and a photoelectric conversion element, wherein the optical fiber for a sensor is provided around the periphery of an electrical conductor through which an electric current to be measured flows, and has one end at which linearly polarized light is incident and the other end at which the incident linearly polarized light is reflected, the polarization separating unit is provided at the one end of the optical fiber for a sensor, the Faraday rotator is disposed between the one end of the optical fiber for a sensor and the polarization separating unit, characterized in that the Faraday rotation angle of the Faraday rotator at the time of magnetic saturation is set to degrees of 22.5° + α° at a temperature of 23°C, a curve of temperature characteristics of a ratio error in a measurement value of an electric current to be measured, output from the signal processing circuit is shifted to a high-temperature side by adjusting the Faraday rotation angle, such that the fluctuation range of the ratio error in the measurement value of the measured electric current output from the signal processing circuit is set within a range of ± 0.5%, said fluctuation range being decreased compared to a corresponding fluctuation range at a Faraday rotation angle of 22.5°, and a temperature range, in which the fluctuation range is set within a range of ±0.5%, is between -20°C or higher and 80°C or lower.
A nested compound loudspeaker comprising: - a speaker assembly chassis; - an outer driver connected to the speaker assembly chassis and having an inner edge, which defines an opening in the outer driver and forms a functional edge, and a diaphragm and an outer edge; and - an inner driver connected to the speaker assembly chassis and at least partially surrounded by the opening of the outer driver and the inner driver having a diaphragm which is located rearward of the outer edge of the diaphragm of the outer driver and the inner driver also having an acoustical centre axis located at a distance (r) from the functional edge in a radial direction, wherein the distance (r) is non-constant around the acoustical centre axis, wherein the distance (r) has a first value in a first radial direction and a second value different to the first value in a second radial direction. - a speaker assembly chassis; - an outer driver connected to the speaker assembly chassis and having an inner edge, which defines an opening in the outer driver and forms a functional edge, and a diaphragm and an outer edge; and - an inner driver connected to the speaker assembly chassis and at least partially surrounded by the opening of the outer driver and the inner driver having a diaphragm which is located rearward of the outer edge of the diaphragm of the outer driver and the inner driver also having an acoustical centre axis located at a distance (r) from the functional edge in a radial direction, wherein the distance (r) is non-constant around the acoustical centre axis, wherein the distance (r) has a first value in a first radial direction and a second value different to the first value in a second radial direction.
An oil-in-water type cosmetic comprising: an ultraviolet scattering agent; a nonionic surfactant; a modified polyalkylene oxide represented by the following formula: wherein R 1 is a linear alkyl group having 15 to 24 carbon atoms, R 2 is a divalent organic residue derived from a diisocyanate compound, [(OCH 2 CH 2) a -ran-(OCH 2 CH(CH 3)) b] is a random copolymer of OCH 2 CH 2 and OCH 2 CH(CH 3), which are constituent units of the copolymer, a is an integer of 5 to 10, b is an integer of 5 to 8, n is an integer of 130 to 680, and m is an integer of 1 to 4; an oily component; and water, the ultraviolet scattering agent comprising fine particulate titanium oxide having a mean particle diameter of 10 to 50 nm and/or fine particulate zinc oxide having a mean particle diameter of 10 to 50 nm. an ultraviolet scattering agent; a nonionic surfactant; a modified polyalkylene oxide represented by the following formula: wherein R 1 is a linear alkyl group having 15 to 24 carbon atoms, R 2 is a divalent organic residue derived from a diisocyanate compound, [(OCH 2 CH 2) a -ran-(OCH 2 CH(CH 3)) b] is a random copolymer of OCH 2 CH 2 and OCH 2 CH(CH 3), which are constituent units of the copolymer, a is an integer of 5 to 10, b is an integer of 5 to 8, n is an integer of 130 to 680, and m is an integer of 1 to 4; an oily component; and water,
A method of wireless communication at a relay user equipment, UE, comprising: receiving, on a downlink channel from a network entity, at least one indication including resource allocation information for at least a remote UE, wherein the resource allocation information corresponds to downlink control information, DCI, including a resource allocation for the remote UE at a first time value representing a subframe slot plus a first time variable associated with the resource allocation; wherein the first time variable corresponds to at least one of a fixed value or a radio resource control, RRC, configured value; transmitting, on a sidelink channel to the remote UE, the resource allocation information for the remote UE, wherein transmitting the resource allocation information to the remote UE includes transmitting the DCI as a medium access control, MAC, control element, CE, as part of a sidelink shared channel, SL-SCH, data, and wherein the DCI is transmitted at a second time value representing the subframe slot plus a second time variable less than the first time variable. receiving, on a downlink channel from a network entity, at least one indication including resource allocation information for at least a remote UE, wherein the resource allocation information corresponds to downlink control information, DCI, including a resource allocation for the remote UE at a first time value representing a subframe slot plus a first time variable associated with the resource allocation; wherein the first time variable corresponds to at least one of a fixed value or a radio resource control, RRC, configured value; transmitting, on a sidelink channel to the remote UE, the resource allocation information for the remote UE, wherein transmitting the resource allocation information to the remote UE includes transmitting the DCI as a medium access control, MAC, control element, CE, as part of a sidelink shared channel, SL-SCH, data, and wherein the DCI is transmitted at a second time value representing the subframe slot plus a second time variable less than the first time variable.
A self-lubricating joint element operating under high loads in dynamic state, and being homogenous throughout its thickness characterized in that it is formed throughout its thickness from the winding of a fabric of small thickness ranging between 20 μm and 150 μm and mixed with a resin comprising fillers, said fabric appearing in the form of strips having a width ranging between 5 mm and 200 mm, said strips being crossed in several layers by filament winding.