mhurhangee/ep-ind-claims huggingface dataset:
A piezoelectric micro-blower for conveying compressive fluid comprising: a piezoelectric element; a diaphragm to which the piezoelectric element is attached; a diaphragm supporting unit configured to support a periphery of the diaphragm at a side wall of the diaphragm supporting unit; and a blower chamber configured to change in volume in response to bending of the diaphragm caused by application of a voltage to the piezoelectric element, the piezoelectric micro-blower being configured to allow the compressive fluid to be conveyed by the change in volume of the blower chamber, wherein the side wall of the diaphragm supporting unit is provided with an outlet that communicates with the blower chamber; characterized in that the blower chamber diameter is less than half a wavelength of a pressure wave at a drive frequency of the diaphragm, thereby allowing internal pressure to be substantially uniformly changed by vibration of the diaphragm in a state where the piezoelectric element is driven by an alternating voltage of 15 kHz or higher. a piezoelectric element; a diaphragm to which the piezoelectric element is attached; a diaphragm supporting unit configured to support a periphery of the diaphragm at a side wall of the diaphragm supporting unit; and a blower chamber configured to change in volume in response to bending of the diaphragm caused by application of a voltage to the piezoelectric element, the piezoelectric micro-blower being configured to allow the compressive fluid to be conveyed by the change in volume of the blower chamber, wherein the side wall of the diaphragm supporting unit is provided with an outlet that communicates with the blower chamber; characterized in that the blower chamber diameter is less than half a wavelength of a pressure wave at a drive frequency of the diaphragm, thereby allowing internal pressure to be substantially uniformly changed by vibration of the diaphragm in a state where the piezoelectric element is driven by an alternating voltage of 15 kHz or higher.
An earth working machine, for example a road milling machine, recycler, stabilizer, or surface miner, having a propelling unit and a machine frame carried by the propelling unit; the earth working machine comprising a working apparatus for earth working; and an operator's platform, having an operator's platform floor and having at least one operating device for controlling at least one functional device of the earth working machine, being provided on the machine frame; the earth working machine comprising a protective canopy liftable and lowerable relative to the operator's platform floor between a lifted operating position and a lowered transport position; the earth working machine comprising a panel arrangement, encompassing a panel, having an upper edge located closer to the protective canopy, having a lower edge located farther from the protective canopy at a distance from the upper edge, and having two side edges (46c, 46d) spanning the distance between the upper and the lower edge (46a, 46b); the panel arrangement being connected in an upper connecting region, located closer to its upper edge than to its lower edge, to the protective canopy and being connected in a lower connecting region, located closer to its lower edge than to its upper edge, to a machine frame-mounted and/or operator's platform floor-mounted connecting base, wherein the panel arrangement is liftable and lowerable together with the protective canopy, the panel arrangement being received on the earth working machine with its lower edge movably toward and away from the operator's platform floor characterized in that the panel arrangement is connected in its lower connecting region to the connecting base via a linear guidance system that guides the relative motion of the lower connecting region away from and toward the connecting base as the protective canopy is respectively lifted and lowered, wherein said connection is such that, when the protective canopy is in the transport position, each point on the panel arrangement is located closer to the operator's platform floor than when the protective canopy is in the operating position.
A device for removing a thrombus from a vascular structure, the device comprising: a first annular member (102, 202, 602) having a guidewire lumen (104, 204) for slidably receiving a guidewire (106, 206, 606); a second annular member (120, 220, 620) coupled to the first annular member (102, 202, 602), the second annular member (120, 220, 620) adapted to provide a suction flow path (124, 224, 624) from a suction port in a distal portion (122, 222, 622) of the second annular member (120, 220, 620) to a proximal portion (128, 228, 628 of the second annular member (120, 220, 620), the distal portion (122, 222, 622) of the second annular member (120, 220, 620) being coupled to a proximal portion (108, 208, 608) of the first annular member (102, 202, 602) in a side-by-side arrangement; a flexible mesh structure (140, 240, 640) coupled to an outer surface of a distal (110, 210) portion of the first annular member (102, 202, 602); and, an actuating element (150, 250, 650) coupled to the flexible mesh structure (140, 240, 640), the actuating element (150, 250, 650) extending from the mesh structure (140, 240, 640) to the proximal portion (128, 228, 628) of the second annular member (120, 220, 620), the actuating element (150, 250, 650) adapted to deploy the flexible mesh structure (140, 240, 640) to an expanded configuration in response to movement of the actuating element (150, 250, 650), characterized by the actuating element (150, 250, 650) being disposed within the suction flow path (124, 224, 624). a first annular member (102, 202, 602) having a guidewire lumen (104, 204) for slidably receiving a guidewire (106, 206, 606); a second annular member (120, 220, 620) coupled to the first annular member (102, 202, 602), the second annular member (120, 220, 620) adapted to provide a suction flow path (124, 224, 624) from a suction port in a distal portion (122, 222, 622) of the second annular member (120, 220, 620) to a proximal portion (128, 228, 628 of the second annular member (120, 220, 620), the distal portion (122, 222, 622) of the second annular member (120, 220, 620) being coupled to a proximal portion (108, 208, 608) of the first annular member (102, 202, 602) in a side-by-side arrangement; a flexible mesh structure (140, 240, 640) coupled to an outer surface of a distal (110, 210) portion of the first annular member (102, 202, 602); and, an actuating element (150, 250, 650) coupled to the flexible mesh structure (140, 240, 640), the actuating element (150, 250, 650) extending from the mesh structure (140, 240, 640) to the proximal portion (128, 228, 628) of the second annular member (120, 220, 620), the actuating element (150, 250, 650) adapted to deploy the flexible mesh structure (140, 240, 640) to an expanded configuration in response to movement of the actuating element (150, 250, 650), characterized by the actuating element (150, 250, 650) being disposed within the suction flow path (124, 224, 624).
A structure for pressurization analysis comprising: a sample accommodating unit in which a sample chamber for accommodating and placing a sample therein is formed; and a pressurizing unit that is mounted on the sample accommodating unit and includes a pressurizing mechanism designed for applying a pressure on the sample in the sample chamber for pressurization analysis, wherein the sample accommodating unit includes a pressure receiving portion for receiving pressure from the pressurizing unit at a position opposite to the pressurizing unit with respect to the sample in the sample chamber, and an X-ray window provided in a direction intersecting an acting direction of the pressure from the pressurizing unit, and is configured to receive X-rays through the X-ray window to irradiate the sample in the sample chamber with the X-rays, and emit diffracted X-rays reflected from the sample to an outside of the sample accommodating unit from the X-ray window, wherein the structure further comprises a sample holder to be fitted and mounted in the sample accommodating unit, wherein the sample holder accommodates the sample therein, and is provided with a cutout portion through which an outer peripheral surface of the sample is exposed to the X-ray window. a sample accommodating unit in which a sample chamber for accommodating and placing a sample therein is formed; and a pressurizing unit that is mounted on the sample accommodating unit and includes a pressurizing mechanism designed for applying a pressure on the sample in the sample chamber for pressurization analysis, wherein the sample accommodating unit includes a pressure receiving portion for receiving pressure from the pressurizing unit at a position opposite to the pressurizing unit with respect to the sample in the sample chamber, and an X-ray window provided in a direction intersecting an acting direction of the pressure from the pressurizing unit, and is configured to receive X-rays through the X-ray window to irradiate the sample in the sample chamber with the X-rays, and emit diffracted X-rays reflected from the sample to an outside of the sample accommodating unit from the X-ray window, wherein the structure further comprises a sample holder to be fitted and mounted in the sample accommodating unit, wherein the sample holder accommodates the sample therein, and is provided with a cutout portion through which an outer peripheral surface of the sample is exposed to the X-ray window.
A display device that displays a virtual image of a first picture (P4, P5, P6) and a virtual image of a second picture (P1, P2, P3) by using a display medium (200, 201), the display device comprising: a light source that emits light; a fixed screen (130a, 131a, 132a) fixedly disposed on an optical path between the light source and the display medium (200, 201); a movable screen (130b, 131b, 132b) disposed on the optical path; and a driver that moves the movable screen (130b, 131b, 132b) along the optical path; characterized by a scanner that scans the fixed screen (130a, 131a, 132a) and the movable screen (130b, 131b, 132b) with the light emitted from the light source to form the first picture (P4, P5, P6) on the fixed screen (130a, 131a, 132a) and the second picture (P1, P2, P3) on the movable screen (130b, 131b, 132b), wherein the driver and the scanner are arranged for being synchronized such a virtual image of second picture is displayed with its display distance increasing from the bottom to the top. a light source that emits light; a fixed screen (130a, 131a, 132a) fixedly disposed on an optical path between the light source and the display medium (200, 201); a movable screen (130b, 131b, 132b) disposed on the optical path; and a driver that moves the movable screen (130b, 131b, 132b) along the optical path; characterized by a scanner that scans the fixed screen (130a, 131a, 132a) and the movable screen (130b, 131b, 132b) with the light emitted from the light source to form the first picture (P4, P5, P6) on the fixed screen (130a, 131a, 132a) and the second picture (P1, P2, P3) on the movable screen (130b, 131b, 132b), wherein the driver and the scanner are arranged for being synchronized such a virtual image of second picture is displayed with its display distance increasing from the bottom to the top.
Holding frame for holding plug connector modules and for installing in a plug connector housing or for screwing to wall surfaces, wherein cut-outs for receiving the plug connector modules are provided on two opposite-lying sides of the holding frame, wherein the cut-outs are configured as laterally closed, through-going openings in the sides of the holding frame, wherein the holding frame is embodied from four parts (2, 3, 4, 5) that are connected to one another, wherein two opposite-lying side parts (4, 5) form the sides of the holding frame, wherein the side parts (4, 5) are connected to one another by means of two head parts (2, 3), wherein the head parts (2, 3) in each case form a fastening end of the holding frame, characterized in that in each case two recesses are configured as receiving arrangements on the head parts (2, 3), and that the side parts (4, 5) in each case form two end-side connecting regions, wherein the connecting regions can be inserted into the receiving arrangements, and the receiving arrangements are configured as slots having in each case an opening (6.1) and an end (6.2) in the head parts (2, 3).
A mobile terminal comprising: a power supply unit configured to supply power to a terminal system; and a controller configured to: measure a remaining charge of a battery included in the power supply unit, measure an available time of the battery based on the measured remaining charge of the battery and a load of the terminal system, and generate a predetermined pre-notice event when an upcoming scheduled event or an upcoming alarm is present after the available time, characterized in that the controller is configured to: check whether a time when the pre-notice event is able to be generated is reached based on a predetermined schedule time and a pre-notice time, wherein the pre-notice time indicates a time range in which the pre-notice event is determined to occur, and measure the remaining charge of the battery when the time when the pre-notice event is able to be generated is reached. a power supply unit configured to supply power to a terminal system; and a controller configured to: measure a remaining charge of a battery included in the power supply unit, measure an available time of the battery based on the measured remaining charge of the battery and a load of the terminal system, and generate a predetermined pre-notice event when an upcoming scheduled event or an upcoming alarm is present after the available time, measure a remaining charge of a battery included in the power supply unit, measure an available time of the battery based on the measured remaining charge of the battery and a load of the terminal system, and generate a predetermined pre-notice event when an upcoming scheduled event or an upcoming alarm is present after the available time, characterized in that the controller is configured to: check whether a time when the pre-notice event is able to be generated is reached based on a predetermined schedule time and a pre-notice time, wherein the pre-notice time indicates a time range in which the pre-notice event is determined to occur, and measure the remaining charge of the battery when the time when the pre-notice event is able to be generated is reached. check whether a time when the pre-notice event is able to be generated is reached based on a predetermined schedule time and a pre-notice time, wherein the pre-notice time indicates a time range in which the pre-notice event is determined to occur, and measure the remaining charge of the battery when the time when the pre-notice event is able to be generated is reached.
A monochromatic display device comprising: a porous electrode sheet comprising: a resin film being transparent and having insulating properties, the resin film being provided with a plurality of through holes extending linearly from one face of the resin film to the other face; and a transparent electrode placed on the one face of the resin film and having openings at positions corresponding respectively to the plurality of through holes; an electrolyte; a display substrate containing no electrodes; an electrochromic layer directly disposed on the display substrate; an address electrode facing the porous electrode sheet across a space filled with the electrolyte; and a counter substrate on which the address electrode is disposed; wherein the transparent electrode of the porous electrode sheet is in contact with an electrochromic layer disposed on the display substrate, the resin film faces, via the other face, the space filled with the electrolyte, and the transparent electrode is formed of an indium tin oxide film, a fluorine-doped tin oxide film, or a zinc oxide film doped with antimony, indium, or aluminum. a porous electrode sheet comprising: a resin film being transparent and having insulating properties, the resin film being provided with a plurality of through holes extending linearly from one face of the resin film to the other face; and a transparent electrode placed on the one face of the resin film and having openings at positions corresponding respectively to the plurality of through holes; a resin film being transparent and having insulating properties, the resin film being provided with a plurality of through holes extending linearly from one face of the resin film to the other face; and a transparent electrode placed on the one face of the resin film and having openings at positions corresponding respectively to the plurality of through holes; an electrolyte; a display substrate containing no electrodes; an electrochromic layer directly disposed on the display substrate; an address electrode facing the porous electrode sheet across a space filled with the electrolyte; and a counter substrate on which the address electrode is disposed; wherein the transparent electrode of the porous electrode sheet is in contact with an electrochromic layer disposed on the display substrate, the resin film faces, via the other face, the space filled with the electrolyte, and the transparent electrode is formed of an indium tin oxide film, a fluorine-doped tin oxide film, or a zinc oxide film doped with antimony, indium, or aluminum.
Holding frame for a printed circuit board, wherein the holding frame has a carrier structure (3, 4, 5) and at least two bearing shoulders (14, 35), wherein the bearing shoulders are each connected to the carrier structure (3, 4, 5) and are designed and arranged to be supported against a surface region of the printed circuit board, wherein the holding frame has a latching hook (13, 36), in particular bayonet hook, which is designed and arranged to engage around a printed circuit board edge and to hold the printed circuit board between the at least one bearing shoulder (14, 35) and the latching hook (13, 36) in an interlocking manner, characterized in that the holding frame has at least one supporting element which is integrally formed on the holding frame, wherein the supporting element extends in a manner pointing away from the holding frame and is designed to engage into an opening in the housing and to connect the holding frame to the housing in an interlocking and/or force-fitting manner, and at least one supporting limb (38, 39, 40, 41) is integrally formed on the holding frame and is designed to engage into an opening (42, 43, 44, 45) in a housing in a force-fitting manner, so that the holding frame can be plug-connected to the housing in a force-fitting manner, and the holding frame is designed to be arranged with the printed circuit board in a cavity which is enclosed by the housing, wherein the housing comprises a housing shell and a housing cover.
A polylactic acid resin film, comprising a polylactic acid resin including: a hard segment comprising a polylactic acid repeating unit of the following Chemical Formula 1; and a soft segment comprising a polyurethane polyol repeating unit in which polyether polyol repeating units of the following Chemical Formula 2 are linearly linked via a urethane bond, wherein the total Young's modulus in both machine direction and transverse direction of the film is 350 to 750 kgf/mm 2, and the total initial tensile strength in both machine direction and transverse direction of the film is 20 kgf/mm 2 or more, wherein the polylactic acid resin comprises 80 to 95 wt% of the hard segment and 5 to 20 wt% of the soft segment. wherein the total Young's modulus and the total initial tensile strength are measured by a tensile strength test according to ASTM D638 using UTM at a drawing speed of 300 mm/min with a distance between grips of 100 mm: wherein, A is a linear or branched alkylene of 2 to 5 carbon atoms, m is an integer of 10 to 100, and n is an integer of 700 to 5000. a hard segment comprising a polylactic acid repeating unit of the following Chemical Formula 1; and a soft segment comprising a polyurethane polyol repeating unit in which polyether polyol repeating units of the following Chemical Formula 2 are linearly linked via a urethane bond, wherein the total Young's modulus in both machine direction and transverse direction of the film is 350 to 750 kgf/mm 2, and the total initial tensile strength in both machine direction and transverse direction of the film is 20 kgf/mm 2 or more, wherein the polylactic acid resin comprises 80 to 95 wt% of the hard segment and 5 to 20 wt% of the soft segment. wherein the total Young's modulus and the total initial tensile strength are measured by a tensile strength test according to ASTM D638 using UTM at a drawing speed of 300 mm/min with a distance between grips of 100 mm: wherein, A is a linear or branched alkylene of 2 to 5 carbon atoms, m is an integer of 10 to 100, and n is an integer of 700 to 5000.
A method comprising: performing beam tracking during an exchange of data packets; at a first device, transmitting, to a second device, a first data packet with a modified first antenna weight vector, the modified first antenna weight vector comprising a previously generated first antenna weight vector with an added perturbation; at the second device, receiving, from the first device, the first data packet with a previously generated second antenna weight vector; characterized by: at the second device, transmitting, to the first device, a second data packet with a modified second antenna weight vector, the modified second antenna weight vector comprising the previously generated second antenna weight vector with an added perturbation; and at the first device, receiving, from the second device, the second data packet with the previously generated first antenna weight vector. performing beam tracking during an exchange of data packets; at a first device, transmitting, to a second device, a first data packet with a modified first antenna weight vector, the modified first antenna weight vector comprising a previously generated first antenna weight vector with an added perturbation; at the second device, receiving, from the first device, the first data packet with a previously generated second antenna weight vector; characterized by: at the second device, transmitting, to the first device, a second data packet with a modified second antenna weight vector, the modified second antenna weight vector comprising the previously generated second antenna weight vector with an added perturbation; and at the first device, receiving, from the second device, the second data packet with the previously generated first antenna weight vector. at a first device, transmitting, to a second device, a first data packet with a modified first antenna weight vector, the modified first antenna weight vector comprising a previously generated first antenna weight vector with an added perturbation; at the second device, receiving, from the first device, the first data packet with a previously generated second antenna weight vector; at the second device, transmitting, to the first device, a second data packet with a modified second antenna weight vector, the modified second antenna weight vector comprising the previously generated second antenna weight vector with an added perturbation; and at the first device, receiving, from the second device, the second data packet with the previously generated first antenna weight vector.