mhurhangee/ep-ind-claims huggingface dataset:
A recording apparatus, comprising: a first transporting path which is a transporting path that transports a medium, passes along a recording portion that performs recording on the medium, and extends to an upstream side and a downstream side of the recording portion; a second transporting path which is a transporting path that is connected to the first transporting path, and switches back and transports the medium in a direction reverse to a feeding direction after the medium which passes along the recording portion is fed; a third transporting path which is a transporting path that is connected to the second transporting path, makes the medium transported in the reverse direction detour an upper side of the recording portion, reverses the medium, and makes the medium merge at a position on the upstream side of the recording portion in the first transporting path; an openable upper member which is a path forming member that forms an upper section of the third transporting path, and can open an upper side of the third transporting path; and a medium receiving tray which is positioned above the openable upper member and receives the discharged medium; and a fourth transporting path which is a transporting path that is connected to the first transporting path and transports the medium that passes along the recording portion toward the medium receiving tray, wherein the openable upper member is integrated with and can be opened and closed with the medium receiving tray. a first transporting path which is a transporting path that transports a medium, passes along a recording portion that performs recording on the medium, and extends to an upstream side and a downstream side of the recording portion; a second transporting path which is a transporting path that is connected to the first transporting path, and switches back and transports the medium in a direction reverse to a feeding direction after the medium which passes along the recording portion is fed; a third transporting path which is a transporting path that is connected to the second transporting path, makes the medium transported in the reverse direction detour an upper side of the recording portion, reverses the medium, and makes the medium merge at a position on the upstream side of the recording portion in the first transporting path; an openable upper member which is a path forming member that forms an upper section of the third transporting path, and can open an upper side of the third transporting path; and a medium receiving tray which is positioned above the openable upper member and receives the discharged medium; and a fourth transporting path which is a transporting path that is connected to the first transporting path and transports the medium that passes along the recording portion toward the medium receiving tray, wherein the openable upper member is integrated with and can be opened and closed with the medium receiving tray.
A separator disk package for a rotatable drum of a centrifuge, in particular of a separator or of a sold-bowl helical conveyor centrifuge for the processing of a fluid product in continuous operation, which separator disk package comprises axially stacked conical separator disks (3, 3'), wherein, between adjacent separator disks, disk gaps are respectively formed, wherein on one or more or all of the axially adjacent separator disks are configured one or more labyrinth-like flow channels, in which, during operation, the direction of flow of a through-flowing product, which is to be clarified of solids, changes on two or more occasions through respectively at least 120°, wherein the flow channel or flow channels is/are bounded by elevations in the form of formed-in or formed-on or attached lugs (12, 13, 14) of the separator disks, and by respectively two adjacent separator disks (3, 3') and wherein the lugs (12, 13, 14) of the separator disks are of web-like configuration, characterized in that the web-like lugs (12, 13, 14) of the separator disks are distributed in such a way on the separator disks that a product to be processed is conducted wholly or in part initially radially from outside to in, then radially from inside to out, and then back radially from outside to in.
A fixation post for driving into bone for attaching an orthopedic device to the bone comprising: a quasi-spherical head with a textured outer surface; a shaft including a proximal end attached to the quasi-spherical head, a distal end opposite the proximal end, and a bearing surface between the proximal and distal ends; a porous metal sleeve including a central bore with a bore surface, the porous metal sleeve receivable on and surrounding at least a portion of the shaft by insertion of the shaft into the central bore, wherein the bore surface substantially conforms with the bearing surface; and a separate cap attachable to the distal end of the shaft to retain the porous metal sleeve on the shaft, wherein the porous metal sleeve includes a proximal sleeve surface in contact with the quasi-spherical head and a distal sleeve surface in contact with the cap. a quasi-spherical head with a textured outer surface; a shaft including a proximal end attached to the quasi-spherical head, a distal end opposite the proximal end, and a bearing surface between the proximal and distal ends; a porous metal sleeve including a central bore with a bore surface, the porous metal sleeve receivable on and surrounding at least a portion of the shaft by insertion of the shaft into the central bore, wherein the bore surface substantially conforms with the bearing surface; and a separate cap attachable to the distal end of the shaft to retain the porous metal sleeve on the shaft, wherein the porous metal sleeve includes a proximal sleeve surface in contact with the quasi-spherical head and a distal sleeve surface in contact with the cap.
An interactive electronic maze system comprising: - a play area formed of several possible paths to be travelled, - a movable device assigned to each player at the entrance of the play area, characterized in that - it further comprises emitter terminals distributed over the play area, in particular at each intersection of the possible paths and that - it further comprises a part management computer capable of preselecting a code list of the terminals which constitute the course to be performed, - the movable device is adapted to detect and identify a terminal when the player is in the vicinity of the exclusion of any other terminal located on the play area and that, - this movable device further comprises a microcontroller and a serial link for assigning to each player in a differentiated manner in the memory of the microcontroller a list of codes of the terminals which constitute the course to be performed by successive detections of the boundaries and that, - in order to verify that players are walking down the course to be performed, the memory of the microcontroller comprises a stage counter which controls the player's evolution by incrementing when the code of the terminal is in agreement with the code of the list corresponding to the stage reached by the player and that the microcontroller comprises a real-time clock synchronizable with that of the part management computer, which limits the time available for performing the course at a duration programmed by an operator. - a play area formed of several possible paths to be travelled, - a movable device assigned to each player at the entrance of the play area, - it further comprises emitter terminals distributed over the play area, in particular at each intersection of the possible paths and that - it further comprises a part management computer capable of preselecting a code list of the terminals which constitute the course to be performed, - the movable device is adapted to detect and identify a terminal when the player is in the vicinity of the exclusion of any other terminal located on the play area and that, - this movable device further comprises a microcontroller and a serial link for assigning to each player in a differentiated manner in the memory of the microcontroller a list of codes of the terminals which constitute the course to be performed by successive detections of the boundaries and that, - in order to verify that players are walking down the course to be performed, the memory of the microcontroller comprises a stage counter which controls the player's evolution by incrementing when the code of the terminal is in agreement with the code of the list corresponding to the stage reached by the player and that the microcontroller comprises a real-time clock synchronizable with that of the part management computer, which limits the time available for performing the course at a duration programmed by an operator.
Method for generating a lateral offset trajectory for an at least partly automated mobile platform, having the following steps: providing a target lateral offset; inverting a provided dynamic model of the mobile platform; providing at least one restriction of a system variable of the dynamic model for the determination of the lateral offset trajectory, wherein the dynamic model depends on the state variables (120, 144b, 144d): sideslip angle and yaw angle and yaw rate and steering angle and lateral offset of the mobile platform; determining a time sequence of lateral offset trajectory points for the inverted dynamic model with a state variable filter (140, 142), based on the at least one restriction of the system variable, and the target lateral offset (110, 130) as an input signal; wherein each point of the time sequence of the lateral offset trajectory is determined analytically; and determining a time sequence of values of at least one manipulated variable for the mobile platform, by means of the inverted dynamic model and the time sequence of lateral offset trajectory points as an input signal for the inverted dynamic model, for generating the lateral offset trajectory. providing a target lateral offset; inverting a provided dynamic model of the mobile platform; providing at least one restriction of a system variable of the dynamic model for the determination of the lateral offset trajectory, wherein the dynamic model depends on the state variables (120, 144b, 144d): sideslip angle and yaw angle and yaw rate and steering angle and lateral offset of the mobile platform; determining a time sequence of lateral offset trajectory points for the inverted dynamic model with a state variable filter (140, 142), based on the at least one restriction of the system variable, and the target lateral offset (110, 130) as an input signal; wherein each point of the time sequence of the lateral offset trajectory is determined analytically; and determining a time sequence of values of at least one manipulated variable for the mobile platform, by means of the inverted dynamic model and the time sequence of lateral offset trajectory points as an input signal for the inverted dynamic model, for generating the lateral offset trajectory.
An ablation device configured for delivery through a working channel to a target treatment area, the ablation device comprising an expandable support member and a flexible circuit (160-b) disposed on the expandable support member, the support member and the flexible circuit being configured to transition between a collapsed configuration when disposed within the working channel and an expanded configuration after they emerge from the working channel, wherein the expandable support member comprises an elastomeric body having a proximal end (1110-d) and a distal end (1105-d), an axis extending from the proximal end to the distal end, and a first surface and a second surface opposite the first surface; and the flexible circuit (160-b) is disposed on the first surface of the elastomeric body and comprises: a plurality of parallel electrodes aligned in parallel with said axis, and wherein the expandable support member and the plurality of parallel electrodes are configured to collapse around said axis parallel to the plurality of parallel electrodes when disposed within the working channel and expand to a substantially flat orientation when the expandable support member and the plurality of parallel electrodes emerge from the working channel, further characterized in that the flexible circuit (160-b) comprises: a first bus coupled with a first subset of the plurality of parallel electrodes at a distal end of said first subset of the plurality of parallel electrodes; and a second bus coupled with a second subset of the plurality of parallel electrodes at a proximal end of said second subset of parallel electrodes. a plurality of parallel electrodes aligned in parallel with said axis, and wherein the expandable support member and the plurality of parallel electrodes are configured to collapse around said axis parallel to the plurality of parallel electrodes when disposed within the working channel and expand to a substantially flat orientation when the expandable support member and the plurality of parallel electrodes emerge from the working channel, a first bus coupled with a first subset of the plurality of parallel electrodes at a distal end of said first subset of the plurality of parallel electrodes; and
An aerodynamic body, comprising: a perforated panel skin comprising an inner surface and an outer surface of the aerodynamic body; and at least one corrugated stiffener comprising a hollow member coupled to the inner surface and a passive aft-facing vent, the at least one corrugated stiffener being operable to passively suction air from the outer surface and through the perforated panel skin and draw the suctioned air to the passive aft-facing vent, the at least one hollow member oriented in a substantially chord-wise direction relative to an airflow over the aerodynamic body, in a substantially stream-wise direction or substantially along a surface-contour profile. a perforated panel skin comprising an inner surface and an outer surface of the aerodynamic body; and at least one corrugated stiffener comprising a hollow member coupled to the inner surface and a passive aft-facing vent, the at least one corrugated stiffener being operable to passively suction air from the outer surface and through the perforated panel skin and draw the suctioned air to the passive aft-facing vent, the at least one hollow member oriented in a substantially chord-wise direction relative to an airflow over the aerodynamic body, in a substantially stream-wise direction or substantially along a surface-contour profile.
A quantitative transfer pipette structure, comprising: a hollow tubular body containing an opening and a top opening; a first bulb containing an anti-backflow compartment having an upper edge being equal to or lower than the position of the top opening in height, wherein the first bulb is situated at one of the conditions (a) and (b) as follows: (a) the first bulb interconnects with the top opening via a first channel, and (b) the first bulb encloses the top opening; a second bulb configured to interconnect with the first bulb via one of the conditions (c) and (d) as follows: (c) a second channel, and (d) the second channel and the first channel sequentially; and a third bulb configured to interconnect with the first bulb via one of the conditions (e), (f), (g) and (h) as follows: (e) a third channel, the second bulb and the second channel sequentially; (f) the third channel and the second channel sequentially; (g) the third channel; and (h) the third channel and the first channel sequentially; the quantitative transfer pipette structure being characterized in that a capacity of the first bulb is equal to or larger than that of the hollow tubular body, a capacity of the second bulb is smaller than that of the hollow tubular body, and a capacity of the third bulb is equal to or larger than that of the hollow tubular body. a hollow tubular body containing an opening and a top opening; a first bulb containing an anti-backflow compartment having an upper edge being equal to or lower than the position of the top opening in height, wherein the first bulb is situated at one of the conditions (a) and (b) as follows: (a) the first bulb interconnects with the top opening via a first channel, and (b) the first bulb encloses the top opening; (a) the first bulb interconnects with the top opening via a first channel, and (b) the first bulb encloses the top opening; a second bulb configured to interconnect with the first bulb via one of the conditions (c) and (d) as follows: (c) a second channel, and (d) the second channel and the first channel sequentially; and (c) a second channel, and (d) the second channel and the first channel sequentially; and a third bulb configured to interconnect with the first bulb via one of the conditions (e), (f), (g) and (h) as follows: (e) a third channel, the second bulb and the second channel sequentially; (f) the third channel and the second channel sequentially; (g) the third channel; and (h) the third channel and the first channel sequentially; (e) a third channel, the second bulb and the second channel sequentially; (f) the third channel and the second channel sequentially; (g) the third channel; and (h) the third channel and the first channel sequentially; the quantitative transfer pipette structure being characterized in that a capacity of the first bulb is equal to or larger than that of the hollow tubular body, a capacity of the second bulb is smaller than that of the hollow tubular body, and a capacity of the third bulb is equal to or larger than that of the hollow tubular body.
A process for the preparation of crosslinked polysaccharides selected from hyaluronic acid, chondroitin and chondroitin sulphate, which comprises cross-linking the polysaccharide in a non-solvent system for the polysaccharide consisting of mixtures of organic solvents and water in the presence of quaternary ammonium bases in concentrations from 0.025 to 1.3 M and of a polyfunctional epoxide, at a temperatures from 30 to 80°C for reaction times from 2 to 16 hours, said cross-linked polysaccharides holding their 3D shape during crosslinking.
A sound source tracking device comprising: a plurality of microphones a support member for supporting the plurality of microphones such that the plurality of microphones are disposed in an array within a given plane, characterized in that the plurality of microphones are a plurality of bidirectional differential microphones, wherein the plurality of differential microphones are configured with two sound ports (141,142) such that acoustic pressure is applied to both faces of a diaphragm, wherein the two sound ports (141, 142) are provided on the same plane and wherein the two sound ports (141, 142) line up as a principal axis of directionality; and the plurality of differential microphones are supported by the support member such that the principal axis of directionality of each of the microphones is substantially orthogonal to the given plane and the plane on which the two sound ports (141, 142) of each of the microphones are provided is substantially orthogonal to the given plane. a plurality of microphones a support member for supporting the plurality of microphones such that the plurality of microphones are disposed in an array within a given plane,
A suction device of a vehicle air-conditioning system, having a suction chamber for fresh air and/or recycling air, a ventilator fan unit which adjoins the suction chamber via a suction opening, a fresh air channel which opens into the suction chamber via a fresh air opening and at least two fresh air flaps (26, 28) which are connected in parallel for common control of the air flow at the fresh air opening, and a recycling air channel which opens into the suction chamber via a recycling air opening and which has at least one recycling air flap for controlling the air flow at the recycling air opening, wherein, in the installation state of the suction device, a first fresh air flap is arranged lower than a second fresh air flap and the at least one recycling air flap is arranged lower than the first fresh air flap, characterized in that, in a mixed air position of the suction device, the first fresh air flap is closed and the second fresh air flap and the at least one recycling air flap are at least partially opened.
Heterojunction diode comprising: - first and second semi-conductive layers (15, 17) made of III-N material that are superposed to form an electron gas layer, the first semi-conductive layer being made of GaN; - an anode and a cathode selectively electrically connected to each other by means of the electron gas layer; - a third semi-conductive layer made of GaN, positioned under the electron gas layer, having an N-doping, the first semi-conductive layer being in contact with the third semi-conductive layer, said first and third semi-conductive layers (15, 14) being formed from the same III-N alloy with different dopings, the first semi-conductive layer being of the unintentionally doped type; - a first P-doped semi-conductor element in contact with the anode and forming a separation between the anode and said third layer; - a second N-doped semi-conductor element in contact with the cathode and with said third layer and forming a separation between the cathode and said third layer; characterized in that: - the third semi-conductive layer made of GaN has an N-doping concentration at most equal to 4 ∗ 10 16 cm -3; - the first semi-conductor element is in contact with the third semi-conductive layer and the third semi-conductive layer and the first and second semi-conductor elements (19, 31) form a PIN diode. - first and second semi-conductive layers (15, 17) made of III-N material that are superposed to form an electron gas layer, the first semi-conductive layer being made of GaN; - an anode and a cathode selectively electrically connected to each other by means of the electron gas layer; - a third semi-conductive layer made of GaN, positioned under the electron gas layer, having an N-doping, the first semi-conductive layer being in contact with the third semi-conductive layer, said first and third semi-conductive layers (15, 14) being formed from the same III-N alloy with different dopings, the first semi-conductive layer being of the unintentionally doped type; - a first P-doped semi-conductor element in contact with the anode and forming a separation between the anode and said third layer; - a second N-doped semi-conductor element in contact with the cathode and with said third layer and forming a separation between the cathode and said third layer; - the third semi-conductive layer made of GaN has an N-doping concentration at most equal to 4 ∗ 10 16 cm -3; - the first semi-conductor element is in contact with the third semi-conductive layer and the third semi-conductive layer and the first and second semi-conductor elements (19, 31) form a PIN diode.