mhurhangee/ep-ind-claims huggingface dataset:
A display device for a vehicle, comprising: - a display with a display surface on a front side and with a rear side opposite thereto, - a cover screen arranged in front of the display surface, the cover screen having an edge and - a rear housing shell which has a rear wall with an edge web protruding from the latter, - the rear wall of the housing shell being arranged at a distance from the rear side of the display and characterized in that - a decorative frame comprises an inward protruding connecting section as an inner flange, on which the cover screen is glued by means of an adhesive, so that the edge of the cover screen is connected to the decorative frame and - the edge web of the housing shell is connected to the decorative frame by means of an adhesive. - a display with a display surface on a front side and with a rear side opposite thereto, - a cover screen arranged in front of the display surface, the cover screen having an edge and - a rear housing shell which has a rear wall with an edge web protruding from the latter, - the rear wall of the housing shell being arranged at a distance from the rear side of the display and characterized in that - a decorative frame comprises an inward protruding connecting section as an inner flange, on which the cover screen is glued by means of an adhesive, so that the edge of the cover screen is connected to the decorative frame and - the edge web of the housing shell is connected to the decorative frame by means of an adhesive.
Tissue paper sheets comprising at least 35% (w/w) of an unbleached Eucalyptus globulus Kraft fibers pulp and having a bulk from 2 to 7 cm 3 /g, a tensile index from 6 to 60 kN.m/kg, an absorption capacity from 7 to 10 gH2O/g paper, an air permeability from 500 to 1090 L/m 2 /s and a softness from 55 to 80 HF.
A burr hole plug, comprising: a base defining a burr hole aperture and comprising a flange configured to rest on the skull of a patient, a sidewall configured to extend into a burr hole in the skull of the patient, and an engagement region extending around the sidewall; two lead retention members (454a, 454b) configured for placement within the base, each of the lead retention members comprising a lead engagement surface to engage and hold a lead between the two lead retention members, wherein each of the lead retention members comprises a receiving opening; a locking member configured for placement within the base and for engaging the two lead retention members to lock the two lead retention members in a lead engagement position and for engaging the engagement region of the base to prevent rotation of the two lead retention members within the base, wherein the locking member comprises two pins configured for insertion in the receiving openings of the two lead retention members to lock the two lead retention members in the lead engagement position, wherein the locking member further comprises a wedge element configured for insertion between the two lead retention members to separate the two lead retention members and drive the lead engagement surfaces of the two lead retention members toward each other; and a cover configured to be disposed over, and coupled to, the base. a base defining a burr hole aperture and comprising a flange configured to rest on the skull of a patient, a sidewall configured to extend into a burr hole in the skull of the patient, and an engagement region extending around the sidewall; two lead retention members (454a, 454b) configured for placement within the base, each of the lead retention members comprising a lead engagement surface to engage and hold a lead between the two lead retention members, wherein each of the lead retention members comprises a receiving opening; a locking member configured for placement within the base and for engaging the two lead retention members to lock the two lead retention members in a lead engagement position and for engaging the engagement region of the base to prevent rotation of the two lead retention members within the base, wherein the locking member comprises two pins configured for insertion in the receiving openings of the two lead retention members to lock the two lead retention members in the lead engagement position, wherein the locking member further comprises a wedge element configured for insertion between the two lead retention members to separate the two lead retention members and drive the lead engagement surfaces of the two lead retention members toward each other; and a cover configured to be disposed over, and coupled to, the base.
A receiving device of a transport device (1, 2) for transporting filter rods (6 - 6'''') transported with compressed air of the tobacco processing industry, wherein the receiving device has a brake device (31, 32) which slows down the filter rods (6 - 6''''), and has an accelerating device which accelerates the filter rods (6 - 6''''), wherein the accelerating device is arranged in a transport direction of the filter rods (6 - 6'''') downstream of the brake device (31, 32), wherein the brake device (31, 32) has at least two brake units, characterized in that the brake units are configured such that they actively slow down the filter rods (6 - 6''''), wherein the brake device (31, 32) comprises two pairs of decelerating rollers (31, 32), wherein a first pair of decelerating rollers is arranged upstream of a second pair of decelerating rollers and the two pairs of decelerating rollers (31, 32) each have a predefinable peripheral speed of the decelerating rollers (3, 3', 3", 3'''), wherein the peripheral speed of the decelerating rollers (3, 3', 3", 3"') is substantially the same or is the same for both pairs of decelerating rollers (31, 32) and the pairs of decelerating rollers (31, 32) are arranged such that, in each case, a filter rod (6 - 6'''') is intermittently simultaneously in engagement with the first and the second pair of decelerating rollers (31, 32).
A process for the preparation of a porous hierarchical scaffold for the replacement, repair, regeneration, reconstruction and/or simulation of a bone tissue, in particular of the trabecular and/or cortical bone tissue comprising the following steps: i) preparing by electrospinning a plurality of sacrificial clusters of nanofibers; ii) positioning said plurality of clusters prepared in step i) so as to form at least a single group; iii) electrospinning nanofibers so as to coat said at least one group of clusters with a sacrificial porous sheath, consisting of nanofibers, so as to form an external coating and to compact said plurality of clusters; iv) inserting the sacrificial hierarchical scaffold obtained with step iii) inside a hollow container, leaving the terminal ends exposed; v) filling said hollow container with a material capable of permeating within and/or incorporating said sacrificial hierarchical scaffold; vi) allowing said material to solidify; vii) removing said sacrificial hierarchical scaffold so as to obtain said porous hierarchical scaffold having internal pores organized according to a hierarchical structure. i) preparing by electrospinning a plurality of sacrificial clusters of nanofibers; ii) positioning said plurality of clusters prepared in step i) so as to form at least a single group; iii) electrospinning nanofibers so as to coat said at least one group of clusters with a sacrificial porous sheath, consisting of nanofibers, so as to form an external coating and to compact said plurality of clusters; iv) inserting the sacrificial hierarchical scaffold obtained with step iii) inside a hollow container, leaving the terminal ends exposed; v) filling said hollow container with a material capable of permeating within and/or incorporating said sacrificial hierarchical scaffold; vi) allowing said material to solidify; vii) removing said sacrificial hierarchical scaffold so as to obtain said porous hierarchical scaffold having internal pores organized according to a hierarchical structure.
Device for stabilizing body segments, wherein the device also covers one or more further body segments adjacent to the respective body segment and the joint or joints lying therebetween, characterized in that a plastic layer stabilizing the shape of the textile carrier layer is sprayed onto a textile carrier layer which has the shape of the body segment to be stabilized, the plastic layer being immovably positioned due to its connection to the textile carrier layer and wherein movements of the various joints can be fully or partially restricted, stabilized or supported by the device.
Lever-operated actuation device for brake or clutch comprising: - a pump body housing a hydraulic pump provided with a float and a hub rotatably associated with the pump body around a lever pin defining a rotation axis (X-X), the hub being associated with a tip operatively connected to the float for its actuation, - the pump body having a pair of fixing ears provided with fixing holes for the lever pin, the lever pin rotatably supporting an associable lever assembly, comprising a manual actuation lever and a lever guide suitable to actuate the tip via the hub, - characterized in that the actuation device comprises retention means that keep the hub joined to the pump body, following the removal of the lever pin and the lever assembly for its disassembly/replacement. - a pump body housing a hydraulic pump provided with a float and a hub rotatably associated with the pump body around a lever pin defining a rotation axis (X-X), the hub being associated with a tip operatively connected to the float for its actuation, - the pump body having a pair of fixing ears provided with fixing holes for the lever pin, the lever pin rotatably supporting an associable lever assembly, comprising a manual actuation lever and a lever guide suitable to actuate the tip via the hub, - characterized in that the actuation device comprises retention means that keep the hub joined to the pump body, following the removal of the lever pin and the lever assembly for its disassembly/replacement.
Method for detecting material accumulation on a 3D-printing-hotend, comprising the steps of: capturing a temperature at the hotend; detecting of a heating power at the hotend; calculating a ratio of temperature and heating power; comparing the calculated ratio with a limit value; performing an action based on the comparison. capturing a temperature at the hotend; detecting of a heating power at the hotend; calculating a ratio of temperature and heating power; comparing the calculated ratio with a limit value; performing an action based on the comparison.
Sensor arrangement, having - at least one sensor (11, 12) that records changeable physical measured variables (T, rH) and provides a sensor raw signal (T_RAW, rH_RAW) at output, - a digital signal processing unit (13; 13.1, 13.2) for preprocessing the sensor raw signal (T_RAW, rH_RAW) provided by the sensor (11, 12) into a sensor signal (T_ASIC, rH_ASIC), for further processing the sensor signal (T_ASIC, rH_ASIC) into a pulse width-modulated output signal having a duty cycle (p) dependent on the measured variable (T, rH), for which purpose a plurality of arrangement-specific correction parameters (PWM_OUT_MIN, PWM_OUT_MAX) are stored in a memory unit and are used by the signal processing unit (13; 13.1, 13.2) to convert the sensor signal (T_ASIC, rH_ASIC) into the pulse width-modulated output signal, wherein at least a minimum duty cycle parameter limit value and a maximum duty cycle parameter limit value are stored in the memory unit as arrangement-specific correction parameters (PWM_OUT_MIN, PWM_OUT_MAX), and - an amplifier unit that converts the pulse width-modulated output signal into an analogue voltage or current signal (U out) - at least one sensor (11, 12) that records changeable physical measured variables (T, rH) and provides a sensor raw signal (T_RAW, rH_RAW) at output, - a digital signal processing unit (13; 13.1, 13.2) for preprocessing the sensor raw signal (T_RAW, rH_RAW) provided by the sensor (11, 12) into a sensor signal (T_ASIC, rH_ASIC), for further processing the sensor signal (T_ASIC, rH_ASIC) into a pulse width-modulated output signal having a duty cycle (p) dependent on the measured variable (T, rH), for which purpose a plurality of arrangement-specific correction parameters (PWM_OUT_MIN, PWM_OUT_MAX) are stored in a memory unit and are used by the signal processing unit (13; 13.1, 13.2) to convert the sensor signal (T_ASIC, rH_ASIC) into the pulse width-modulated output signal, wherein at least a minimum duty cycle parameter limit value and a maximum duty cycle parameter limit value are stored in the memory unit as arrangement-specific correction parameters (PWM_OUT_MIN, PWM_OUT_MAX), and - an amplifier unit that converts the pulse width-modulated output signal into an analogue voltage or current signal (U out)
Under-floor box for electric installations, comprising a housing base part to be placed onto a floor of a building and a housing upper part, wherein the housing upper part is supported against the housing base part by means of at least two threaded rods, and wherein means for height adjustment of the housing upper part relative to the housing base part by a turning move relative to the housing upper part along a pitch of the threaded rod are provided, and wherein the threaded rod is received in a guiding device, characterized in that in the region of the guiding device is disposed an engagement part which is displaceable radially in relation to the threaded rod and provided with an internal thread on the end facing the threaded rod.
A thermal transfer printer comprising a tape drive mechanism which is configured to transport tape between two spools (7, 11) of tape mounted on spool supports (8, 12), and diameter measuring means for measuring the diameters of the two spools (7, 11) of tape, characterised in that the diameter measuring means comprise: an optical sensing system including at least one light emitter (28, 29) and at least one light detector arranged such that an optical path is established therebetween, a transport mechanism supporting at least part of the optical sensing system and drivable so as to cause the optical path to sweep across a space within which the spools (7, 11) to be measured will be located, and a controller operative to control the transport mechanism, to detect positions of the transport mechanism in which the output of the detector changes to indicate a transition between two conditions in one of which the optical path is obstructed by a spool (7, 11) and in the other of which the optical path is not obstructed by that spool (7, 11), and to calculate the spool diameters (7, 11) from the detected positions of the transport mechanism in which the detector output changes.
A rolling bearing for an air turbine comprising: an outer ring; an inner ring; a plurality of rolling bodies rollably disposed between the outer ring and the inner ring; and a substantially annular seal member provided in one axial end portion of the bearing internal space between the outer ring and the inner ring and made of an elastic body without a core metal, wherein the outer peripheral portion of the seal member is fixed by a retaining ring to a groove portion formed on the inner peripheral surface of the outer ring in the one axial end portion and the inner peripheral portion of the seal member is elastically deformable, the one axial end portion is on a side opposite to an inlet of compressed air supplied to the bearing internal space, the seal member includes an inclined portion inclined toward one axial end portion side on an inner diameter side, characterized in that 1 ≤ Ts / Set ≤ 10 is satisfied when Ts is a circumferential gap of the retaining ring at a time when the seal member and the retaining ring are attached to the groove portion of the outer ring and Set is an axial thickness of a part of the seal member in contact with the retaining ring. an outer ring; an inner ring; a plurality of rolling bodies rollably disposed between the outer ring and the inner ring; and a substantially annular seal member provided in one axial end portion of the bearing internal space between the outer ring and the inner ring and made of an elastic body without a core metal, wherein the outer peripheral portion of the seal member is fixed by a retaining ring to a groove portion formed on the inner peripheral surface of the outer ring in the one axial end portion and the inner peripheral portion of the seal member is elastically deformable, the one axial end portion is on a side opposite to an inlet of compressed air supplied to the bearing internal space, the seal member includes an inclined portion inclined toward one axial end portion side on an inner diameter side, characterized in that 1 ≤ Ts / Set ≤ 10 is satisfied when Ts is a circumferential gap of the retaining ring at a time when the seal member and the retaining ring are attached to the groove portion of the outer ring and Set is an axial thickness of a part of the seal member in contact with the retaining ring.
A method implemented in a network device for providing packet loss notification in a video transmission, the method comprising: determining that a first video packet sent from a first client to a second client has been lost; receiving a second video packet sent from the second client to the first client; the method being characterized by: modifying the second video packet by adding packet loss information indicating that the first video packet has been lost; and sending the modified second video packet to the first client. modifying the second video packet by adding packet loss information indicating that the first video packet has been lost; and sending the modified second video packet to the first client.
A generation method of a tool path for generating a tool path (PA') at a time of machining a workpiece, characterized in that it comprises: a distance calculation step of calculating distances from a correction machining point (Pt) to respective distance calculation points (Pu, Pw), the correction machining point (Pt) being one machining point on a plurality of tool paths obtained by successively connecting predetermined pluralities of machining points by line segments, the distance calculation points (Pu, Pw) being points on the plurality of tool paths located around the correction machining point (Pt); an extraction step of extracting distance calculation points (Pu', Pw') with distances calculated by the distance calculation step within a predetermined value; an average value calculation step of calculating an average value of position data of the distance calculation points (Pu', Pw') extracted by the extraction step and position data of the correction machining point (Pt); and a data correction step of correcting the position data of the correction machining point (Pt), by the average value calculated by the average value calculation step, and generating a new tool path (PA') based on the corrected position data of the machining point (Pt'). a distance calculation step of calculating distances from a correction machining point (Pt) to respective distance calculation points (Pu, Pw), the correction machining point (Pt) being one machining point on a plurality of tool paths obtained by successively connecting predetermined pluralities of machining points by line segments, the distance calculation points (Pu, Pw) being points on the plurality of tool paths located around the correction machining point (Pt); an extraction step of extracting distance calculation points (Pu', Pw') with distances calculated by the distance calculation step within a predetermined value; an average value calculation step of calculating an average value of position data of the distance calculation points (Pu', Pw') extracted by the extraction step and position data of the correction machining point (Pt); and a data correction step of correcting the position data of the correction machining point (Pt), by the average value calculated by the average value calculation step, and generating a new tool path (PA') based on the corrected position data of the machining point (Pt').
A vulcanizable polymer composition comprising a) a polymer having an iodine value of lower than 400 g/100 g polymer, b) an organic peroxide having aromatic groups which is di(tert-butylperoxyisopropyl) benzene, c) a zeolite having a pore size of 3 to 6 Å and a filler, whereby the amount of zeolite is in the range of 0,1-20 parts per hundred parts of the polymer of the component a) and the amount of filler is in the range of 100 to 300 parts per hundred parts of the polymer of the component a) and the amount of organic peroxide is in the range of 0.1 - 10 parts per 100 parts of polymer a). a) a polymer having an iodine value of lower than 400 g/100 g polymer, b) an organic peroxide having aromatic groups which is di(tert-butylperoxyisopropyl) benzene, c) a zeolite having a pore size of 3 to 6 Å and whereby the amount of zeolite is in the range of 0,1-20 parts per hundred parts of the polymer of the component a) and the amount of filler is in the range of 100 to 300 parts per hundred parts of the polymer of the component a) and the amount of organic peroxide is in the range of 0.1 - 10 parts per 100 parts of polymer a).
A seaming element (10, 100, 800) for seaming a first seamable edge of a woven or nonwoven industrial textile to a second seamable edge of the industrial textile, the industrial textile comprising at least one layer, each layer having first and second substantially planar surfaces, the seaming element (10, 100, 800) comprising at least one elongate body (20, 120, 860) having first (22, 122) and second ends(24, 124), a first lateral edge region (26, 126) and a second lateral edge region (28, 128), the first lateral edge region (26, 126) comprising at least one channeled protrusion (50, 150, 850) defining a longitudinal channel (54, 154, 854) between the first end (22, 122) and the second end (24, 124); characterized in that: (i) the seaming element is constructed of one or more layers of film; (ii) the seaming element has suitable optical properties as to be transparent to incident laser radiation; (iii) a layer energy absorbent is provided on an interior of the seaming element so that the second lateral edge region (28, 128) is capable of being laser welded to two of the substantially planar surfaces of the industrial textile proximate the first seamable edge; and (iv) the at least one channeled protrusion (50, 150, 850) extends from the first seamable edge when the seaming element is in the seaming position and is engageable with the corresponding at least one channeled protrusion (50, 150, 850) of a complementary seaming element (10, 100, 800) bonded at the second seamable edge, such that the channeled protrusions are securably aligned together. (i) the seaming element is constructed of one or more layers of film; (ii) the seaming element has suitable optical properties as to be transparent to incident laser radiation; (iii) a layer energy absorbent is provided on an interior of the seaming element so that the second lateral edge region (28, 128) is capable of being laser welded to two of the substantially planar surfaces of the industrial textile proximate the first seamable edge; and (iv) the at least one channeled protrusion (50, 150, 850) extends from the first seamable edge when the seaming element is in the seaming position and is engageable with the corresponding at least one channeled protrusion (50, 150, 850) of a complementary seaming element (10, 100, 800) bonded at the second seamable edge, such that the channeled protrusions are securably aligned together.
Hearing aid having a) a frame, which retains all of the internal components, and, b) a multi-part shell (OS, US), which is fastened on the frame, characterized in that an upper shell and a lower shell and a battery compartment are fastened on the frame, which comprises a base frame and a cover frame, by pins, and the frame is divided orthogonally, or at right angles, in relation to the shell (OS, US) such that the upper or lower shell (OS, US) is opened vertically and the base or cover frame (GR, DR) is opened horizontally. a) a frame, which retains all of the internal components, and, b) a multi-part shell (OS, US), which is fastened on the frame,