mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a transmitter configured to illuminate a scene with a patterned light being adjusted based on predefined criteria; a receiver configured to receive reflections of the adjusted patterned light; and a computer processor configured to control the adjustment of the patterned light and further analyze the received reflections, to yield a depth map of objects within the scene, wherein the transmitter comprises: a light source configured to produce a light beam; a first reflector tiltable on an x-y plane in a Cartesian x-y-z coordinate system; and a second reflector tiltable along a z-axis in said Cartesian x-y-z coordinate system, wherein the reflectors are configured to be tilted along their respective axes so as to divert the light beam for creating the adjusted patterned light, characterized in that the computer processor is configured to control the adjustment of the patterned light as a closed Lissajous curve. a transmitter configured to illuminate a scene with a patterned light being adjusted based on predefined criteria; a receiver configured to receive reflections of the adjusted patterned light; and a computer processor configured to control the adjustment of the patterned light and further analyze the received reflections, to yield a depth map of objects within the scene, wherein the transmitter comprises: a light source configured to produce a light beam; a first reflector tiltable on an x-y plane in a Cartesian x-y-z coordinate system; and a second reflector tiltable along a z-axis in said Cartesian x-y-z coordinate system, wherein the reflectors are configured to be tilted along their respective axes so as to divert the light beam for creating the adjusted patterned light, characterized in that the computer processor is configured to control the adjustment of the patterned light as a closed Lissajous curve. a light source configured to produce a light beam; a first reflector tiltable on an x-y plane in a Cartesian x-y-z coordinate system; and a second reflector tiltable along a z-axis in said Cartesian x-y-z coordinate system, wherein the reflectors are configured to be tilted along their respective axes so as to divert the light beam for creating the adjusted patterned light, characterized in that the computer processor is configured to control the adjustment of the patterned light as a closed Lissajous curve.
Arrangement comprising a base device and an add-on device, which are lined up with one another on in each case one of their housing sides (10, 10'), and comprising a connecting means for mechanically connecting the add-on device to the base device, wherein the connecting means is an elongate body which is rotatably mounted in the base unit by way of a first sub-section and protrudes beyond the housing side of the base device by way of a second sub-section which is formed on the connecting means, which body can assume a mounting position and a locking position and can be pivoted between the mounting position and the locking position, wherein complementary holding structures (15, 16) which spatially match one another are formed on the second sub-section of the connecting means and the housing side of the add-on device, which holding structures are designed to interengage in the mounting position and to be releasably held against one another in the locking position, characterized in that complementary securing means (17, 18) which spatially match one another are formed on the first sub-section of the connecting means and the base device, which securing means lock the connecting means in the mounting position and in the locking position so as to form in each case a holding force which can be overcome for pivoting the connecting means.
A mask assembly for a patient, comprising: a frame; a cushion provided to the frame; and lateral outriggers, each lateral outrigger including flexible legs extending from the frame, the flexible legs having distal ends supporting a receptacle, wherein the receptacle is configured to receive a spring-fit connector clip associated with a headgear strap portion. a frame; a cushion provided to the frame; and lateral outriggers, each lateral outrigger including flexible legs extending from the frame, the flexible legs having distal ends supporting a receptacle, wherein the receptacle is configured to receive a spring-fit connector clip associated with a headgear strap portion.
A gas turbine engine, comprising: a fan disposed at an engine central longitudinal axis; a fan drive turbine disposed at the engine central longitudinal axis and configured to drive rotation of the fan; a gas generator non-coaxial with the fan drive turbine and operably connected to the fan drive turbine such that exhaust from the gas generator drives rotation of the fan drive turbine; an auxiliary power core disposed at the engine central longitudinal axis; and one or more bleed passages to connect the gas generator and the auxiliary power core; wherein the one or more bleed passages are configured to selectably combine a bleed airflow from the gas generator and an auxiliary core airflow at the auxiliary power core to direct the combined airflow (78A, 82A) to the fan drive turbine to increase output of the fan drive turbine. a fan disposed at an engine central longitudinal axis; a fan drive turbine disposed at the engine central longitudinal axis and configured to drive rotation of the fan; a gas generator non-coaxial with the fan drive turbine and operably connected to the fan drive turbine such that exhaust from the gas generator drives rotation of the fan drive turbine; an auxiliary power core disposed at the engine central longitudinal axis; and one or more bleed passages to connect the gas generator and the auxiliary power core; wherein the one or more bleed passages are configured to selectably combine a bleed airflow from the gas generator and an auxiliary core airflow at the auxiliary power core to direct the combined airflow (78A, 82A) to the fan drive turbine to increase output of the fan drive turbine.
Vacuum cleaner bag filter (102, 1012) comprising - one or more filter walls (1013, 1023) forming a generally air permeable enclosure having a bag opening therethrough, each filter wall (1013, 1023) having a working surface area adapted to allow air to pass through during use; - a flange (118, 1018) attached to the at least one filter wall (1013, 1023) to cover the bag opening, the flange (118, 1018) comprising a relatively rigid structure having an air inlet passing into the air permeable enclosure; - one or more deodorizing sheets (120, 1000, 1034) attached to each inner surface of one or more filter walls (1013, 1023), each deodorizing sheet (120, 1000, 1034) comprising -- a first sheet layer; -- a plurality of sodium bicarbonate particles (1126, 1226) operatively associated with the first sheet layer; - wherein the one or more deodorizing sheets (120, 1000, 1034) each covers less than about 30 % of each working surface area. - one or more filter walls (1013, 1023) forming a generally air permeable enclosure having a bag opening therethrough, each filter wall (1013, 1023) having a working surface area adapted to allow air to pass through during use; - a flange (118, 1018) attached to the at least one filter wall (1013, 1023) to cover the bag opening, the flange (118, 1018) comprising a relatively rigid structure having an air inlet passing into the air permeable enclosure; - one or more deodorizing sheets (120, 1000, 1034) attached to each inner surface of one or more filter walls (1013, 1023), each deodorizing sheet (120, 1000, 1034) comprising -- a first sheet layer; -- a plurality of sodium bicarbonate particles (1126, 1226) operatively associated with the first sheet layer; -- a first sheet layer; -- a plurality of sodium bicarbonate particles (1126, 1226) operatively associated with the first sheet layer; - wherein the one or more deodorizing sheets (120, 1000, 1034) each covers less than about 30 % of each working surface area.
An upper body of a garment (1, 51) comprising: a body including a rear region stretchy to act a horizontal tension on a wearer; a left sleeve sewed on the left of the rear region, including an upper area (23, 68) of a rear face generating a longitudinal tension of 45 cN or more when it is longitudinally stretched by 20 %; and a right sleeve sewed on the right of the rear region, including an upper area (28, 78) of a rear face generating a longitudinal tension of 45 cN or more when it is longitudinally stretched by 20 %, a left armhole located at the left of the rear region and sewed to the upper area of the rear face of the left sleeve; and a right armhole located at the right of the rear region and sewed to the upper area of the rear face of the right sleeve, wherein (a) the upper area of the rear face of the left sleeve has a left sewed portion sewed to the left armhole in the rear region and (b) having a size too small to reach the deepest portion of the left armhole before the upper area of the rear face of the left sleeve is sewed to the left armhole; and (c) the upper area of the rear face of the right sleeve has a right sewed portion sewed to the right armhole in the rear region and (d) having a size too small to reach the deepest portion of the right armhole before the upper area of the rear face of the right sleeve is sewed to the right armhole. a body including a rear region stretchy to act a horizontal tension on a wearer; a left sleeve sewed on the left of the rear region, including an upper area (23, 68) of a rear face generating a longitudinal tension of 45 cN or more when it is longitudinally stretched by 20 %; and a right sleeve sewed on the right of the rear region, including an upper area (28, 78) of a rear face generating a longitudinal tension of 45 cN or more when it is longitudinally stretched by 20 %, a left armhole located at the left of the rear region and sewed to the upper area of the rear face of the left sleeve; and a right armhole located at the right of the rear region and sewed to the upper area of the rear face of the right sleeve, wherein (a) the upper area of the rear face of the left sleeve has a left sewed portion sewed to the left armhole in the rear region and (b) having a size too small to reach the deepest portion of the left armhole before the upper area of the rear face of the left sleeve is sewed to the left armhole; and (c) the upper area of the rear face of the right sleeve has a right sewed portion sewed to the right armhole in the rear region and (d) having a size too small to reach the deepest portion of the right armhole before the upper area of the rear face of the right sleeve is sewed to the right armhole.
A bone anchoring device for anchoring and fixing vertebrae, in particular for insertion into a pedicle canal, with a fork head having a U-shaped cutout in a side view for a correction element, in particular a connecting rod with two legs (921, 922) which terminate proximally and form a threaded section which engages with an adjusting means (80, 81), wherein the legs (921, 922) have a radially outer circumferential area in which at least one retaining groove or other instrument attachment point is formed for gripping the fork head by means of a handling instrument, and a bone anchoring element, with a proximal end facing away therefrom in the axial direction, such that a distal direction and a proximal direction are also defined, wherein the bone anchoring element has a spherical head at the proximal end area and the bone anchoring element can be pivoted polyaxially with respect to the fork head, and the bone anchoring element is mounted with the fork head coming from the distal end, characterized in that the bone anchoring element has a mainly cylindrical core, and the mainly cylindrical core at the proximal area (110, 120) enlarges at least in sections from distal to proximal and in that two wings (150, 151) extend laterally and the wings (150, 151) have a distal wing orientation and a proximal wing orientation different therefrom, and in that the wings (150, 151) form helically between these wing orientations (440, 441), and in that the bone anchoring element is not formed for screwing in, but for hammering into the bone (61, 63) and in that, the bone anchoring element is configured in such a way that after implantation into a vertebra, the outer surfaces (1506, 1516) of the wings at the proximal area point in the direction of the cranial and caudal areas of the pedicle canal and distally, the projected area that is formed by the core (140, 130) and the lateral wing surfaces (1502, 1504, 1512, 1514), is aligned in the cranial / caudal direction in the cancellous bone of the vertebra.
A method for moving between communications systems, wherein the method is performed by a user equipment, UE, when the UE moves from a first communications system to a second communications system, and the method comprises: receiving, from a first core network entity, a first message, wherein the first message is used to set up or modify a first EPS bearer for the UE in the first communications system, and the first message comprises first quality of service, QoS, flow information that is of the second communications system and that is corresponding to the first EPS bearer; storing the first QoS flow information; moving from the first communications system to the second communications system, wherein the moving from the first communications system to the second communications system comprises receiving a handover command from a base station in the first communications system, wherein the handover command comprises a QoS flow identifier and a session identifier; and determining, based on a first condition, second QoS flow information used by the UE in the second communications system, wherein the first condition comprises the first QoS flow information, the QoS flow identifier and the session identifier. receiving, from a first core network entity, a first message, wherein the first message is used to set up or modify a first EPS bearer for the UE in the first communications system, and the first message comprises first quality of service, QoS, flow information that is of the second communications system and that is corresponding to the first EPS bearer; storing the first QoS flow information; moving from the first communications system to the second communications system, wherein the moving from the first communications system to the second communications system comprises receiving a handover command from a base station in the first communications system, wherein the handover command comprises a QoS flow identifier and a session identifier; and determining, based on a first condition, second QoS flow information used by the UE in the second communications system, wherein the first condition comprises the first QoS flow information, the QoS flow identifier and the session identifier.
A bending machine for bending a sheet metal workpiece, comprising at least three bending punches (4,5,6), which respectively have working edges (7,8,9) which are aligned parallel to one another, wherein relative to an initial plane in which a bend section to be made in the sheet metal workpiece lies, the first and the second bending punch (4,5) are positioned on one side and the third bending punch is positioned on the opposite side of the initial plane and the working edge of the third bending punch is displaceable between the working edges (7,8) of the first and second bending punches (4,5), wherein the third bending punch has at least one rotary and one translatory degree of freedom in a reference plane oriented at a right angle to a working edge (7,8,9), wherein the second bending punch has three degrees of freedom in the reference plane, characterized in that a supporting body defining the initial plane and structurally separate from the first bending punch is provided for a sheet metal workpiece and that the first bending punch has at least one translatory degree of freedom in the reference plane.
An apparatus comprising: a bladder that comprises: a casing that encloses an internal volume of the bladder; walls within the bladder that subdivide the internal volume into cells that are airtight with respect to each other; a main port that penetrates the casing; and ducting that couples each of the cells with a source of pressurized gas via a distinct pathway, wherein the ducting is routed through the internal volume of the bladder, and exits the bladder via the main port; and a controller configured to progressively pressurize individual cells within the bladder from a first portion of a laminate to a second portion of the laminate by controlling application of gas from the source via the ducting. a bladder that comprises: a casing that encloses an internal volume of the bladder; walls within the bladder that subdivide the internal volume into cells that are airtight with respect to each other; a main port that penetrates the casing; and ducting that couples each of the cells with a source of pressurized gas via a distinct pathway, wherein the ducting is routed through the internal volume of the bladder, and exits the bladder via the main port; and a casing that encloses an internal volume of the bladder; walls within the bladder that subdivide the internal volume into cells that are airtight with respect to each other; a main port that penetrates the casing; and ducting that couples each of the cells with a source of pressurized gas via a distinct pathway, wherein the ducting is routed through the internal volume of the bladder, and exits the bladder via the main port; and a controller configured to progressively pressurize individual cells within the bladder from a first portion of a laminate to a second portion of the laminate by controlling application of gas from the source via the ducting.
A method for determining a status of a microphone, the method comprising: - registering an audio signal from the microphone and providing the audio signal to an audio signal receiver; - providing, while registering the audio signal from the microphone and while providing the audio signal to an audio signal receiver, a temporary replacement audio signal to the audio signal receiver; - transmitting a predetermined impulse waveform to a piezoelectric component, the piezoelectric component being located in a vicinity of the microphone and arranged in mechanical connection with the microphone, to induce a mechanical impulse in the piezoelectric component; - determining whether a response signal waveform from the microphone corresponds to the predetermined impulse waveform; - resuming the provision of the audio signal to the audio signal receiver, and - upon the response signal waveform from the microphone corresponding to the predetermined impulse waveform, determining that the status of the microphone is operational. - registering an audio signal from the microphone and providing the audio signal to an audio signal receiver; - providing, while registering the audio signal from the microphone and while providing the audio signal to an audio signal receiver, a temporary replacement audio signal to the audio signal receiver; - transmitting a predetermined impulse waveform to a piezoelectric component, the piezoelectric component being located in a vicinity of the microphone and arranged in mechanical connection with the microphone, to induce a mechanical impulse in the piezoelectric component; - determining whether a response signal waveform from the microphone corresponds to the predetermined impulse waveform; - resuming the provision of the audio signal to the audio signal receiver, and - upon the response signal waveform from the microphone corresponding to the predetermined impulse waveform, determining that the status of the microphone is operational.
Process for the hydrotreatment of a vegetal biomass comprising: a) subjecting said vegetal biomass to a hydrotreatment in a first reactor, said hydrotreatment comprises contacting said vegetal biomass in an aqueous medium and a metal oxide, a mixed metal oxide, or a metal-metalloid oxide catalyst comprising at least 35% by weight of metal oxide, mixed metal oxide, or metal-metalloid oxide relative to the total weight of the catalyst, with hydrogen at a pressure in the range of 10 to 400 bar and at a temperature in the range of 50 °C to 300 °C until a predetermined level of the hydrotreatment of said biomass is obtained, wherein the metal oxide, the mixed metal oxide, or the metal-metalloid oxide is nickel, or is nickel and at least one element chosen from the group Mo, W, Fe, Co, Pd, Cu, B, Ga, In, Tl and wherein the process further comprises the steps of obtaining the metal oxide, the mixed metal oxide, or the metal-metalloid oxide catalyst by a sol-gel process comprising solution, gelation, drying and densification. a) subjecting said vegetal biomass to a hydrotreatment in a first reactor, said hydrotreatment comprises contacting said vegetal biomass in an aqueous medium and a metal oxide, a mixed metal oxide, or a metal-metalloid oxide catalyst comprising at least 35% by weight of metal oxide, mixed metal oxide, or metal-metalloid oxide relative to the total weight of the catalyst, with hydrogen at a pressure in the range of 10 to 400 bar and at a temperature in the range of 50 °C to 300 °C until a predetermined level of the hydrotreatment of said biomass is obtained, wherein the metal oxide, the mixed metal oxide, or the metal-metalloid oxide is nickel, or is nickel and at least one element chosen from the group Mo, W, Fe, Co, Pd, Cu, B, Ga, In, Tl and wherein the process further comprises the steps of obtaining the metal oxide, the mixed metal oxide, or the metal-metalloid oxide catalyst by a sol-gel process comprising solution, gelation, drying and densification.
A docking device that is mountable on a first space vehicle that performs inertial flight in space, and docks, with the first space vehicle, a second space vehicle that performs inertial flight in space, the docking device comprising: a base ring disposed in a coupling part of the first space vehicle; a first-side capturing ring for coming into contact with the second space vehicle; six links that constitute a parallel link mechanism for coupling the base ring to the first-side capturing ring with six degrees of freedom; and linear actuators, each of which incorporates a motor as a driving source, and extends and contracts the link, wherein resistance generation mechanisms, each of which generates a regenerative current in the motor of the linear actuator to produce resistance force with respect to at least a compressive load when the second space vehicle comes into contact with the first-side capturing ring and the link receives a contact load, are provided.