mhurhangee/ep-ind-claims huggingface dataset:
A resistor component for surface mounting on a printed circuit board, comprising: a ceramic substrate (1, 1') with a first side and an opposite second side, wherein a sinterable metallization (3, 3') is arranged at least in some regions on the second side; a resistance element having a metal layer (5, 5') arranged at least in some regions on the first side of the ceramic substrate (1, 1') with a first connection (7a, 7a') and a second connection (7b, 7b'); an insulation layer (9, 9') arranged at least in some regions on the resistance element and the ceramic substrate (1, 1'), wherein a first region (8a, 8a') on the first connection (7a, 7a') and a second region (8b, 8b') on the second connection (7b, 7b') remain uncovered by the insulation layer (9, 9'); and a first contact pad (11a, 11a') that electrically contacts the first connection (7a, 7a') via the first region (8a, 8a') and a second contact pad (11b, 11b') that electrically contacts the second connection (7b, 7b') via the second region (8b, 8b'); characterized in that the first contact pad (11a, 11a') covers a first surface area of the insulation layer (9, 9') at least in some regions and the second contact pad (11b, 11b') covers a second surface area of the insulation layer (9, 9') at least in some regions, and in that the first contact pad (11a, 11a') and the second contact pad (11b, 11b') are arranged on the insulation layer (9, 9') such that they are spatially separated from one another. a ceramic substrate (1, 1') with a first side and an opposite second side, wherein a sinterable metallization (3, 3') is arranged at least in some regions on the second side; a resistance element having a metal layer (5, 5') arranged at least in some regions on the first side of the ceramic substrate (1, 1') with a first connection (7a, 7a') and a second connection (7b, 7b'); an insulation layer (9, 9') arranged at least in some regions on the resistance element and the ceramic substrate (1, 1'), wherein a first region (8a, 8a') on the first connection (7a, 7a') and a second region (8b, 8b') on the second connection (7b, 7b') remain uncovered by the insulation layer (9, 9'); and a first contact pad (11a, 11a') that electrically contacts the first connection (7a, 7a') via the first region (8a, 8a') and a second contact pad (11b, 11b') that electrically contacts the second connection (7b, 7b') via the second region (8b, 8b'); characterized in that the first contact pad (11a, 11a') covers a first surface area of the insulation layer (9, 9') at least in some regions and the second contact pad (11b, 11b') covers a second surface area of the insulation layer (9, 9') at least in some regions, and in that the first contact pad (11a, 11a') and the second contact pad (11b, 11b') are arranged on the insulation layer (9, 9') such that they are spatially separated from one another.
A method of operating an electric induction motor with a variable speed drive, the method comprising the steps of: determining a voltage level on a DC bus for the variable speed drive; measuring, using a magnetic flux sensor, a first magnitude of magnetic flux from a stator of the electric induction motor, the measuring being done while the electric induction motor is operating normally, the measured first magnitude constituting a normal flux level; disabling a first output signal to the variable-speed drive when the voltage level on the DC bus is less than a first threshold level, wherein disabling the first output signal shuts off power supplied to the electric motor; measuring, using the magnetic flux sensor, a magnetic flux signal from the stator of the electric motor after the power has been shut off, the magnetic flux signal having a phase, and a second magnitude; estimating a rotational speed of the electric motor based on the magnetic flux signal measurement; configuring a second output signal for the variable-speed drive when the voltage level on the DC bus is greater than a second threshold level, wherein the second output signal is configured to match a signal generated by the measured second magnitude and a phase of magnetic flux from the stator; enabling a variable-speed drive output based on the second output signal to start the electric induction motor when the measured magnetic flux is greater than a third threshold value. determining a voltage level on a DC bus for the variable speed drive; measuring, using a magnetic flux sensor, a first magnitude of magnetic flux from a stator of the electric induction motor, the measuring being done while the electric induction motor is operating normally, the measured first magnitude constituting a normal flux level; disabling a first output signal to the variable-speed drive when the voltage level on the DC bus is less than a first threshold level, wherein disabling the first output signal shuts off power supplied to the electric motor; measuring, using the magnetic flux sensor, a magnetic flux signal from the stator of the electric motor after the power has been shut off, the magnetic flux signal having a phase, and a second magnitude; estimating a rotational speed of the electric motor based on the magnetic flux signal measurement; configuring a second output signal for the variable-speed drive when the voltage level on the DC bus is greater than a second threshold level, wherein the second output signal is configured to match a signal generated by the measured second magnitude and a phase of magnetic flux from the stator; enabling a variable-speed drive output based on the second output signal to start the electric induction motor when the measured magnetic flux is greater than a third threshold value.
A scaffold for implantation into a mammal to facilitate vessel growth in repair, regeneration, and/or proliferation of bodily tissue, the scaffold comprising: a scaffold body of biocompatible material in a physical form selected from the group consisting of fibers, hollow fibers, tubes, ribbons, solid spheres, hollow spheres, particles, bonded particles, and combinations thereof, which are bonded together and which define a scaffold body having a weight between 10 milligrams and 500 grams, and compressive strength greater than 0.4 MPa, wherein: the scaffold has a porosity between about 15 and about 90 vol.% to provide fluid flow in the scaffold for uptake of bodily fluids; the biocompatible material is glass or glass ceramic; and the biocompatible material comprises: one or more trace elements selected from the group consisting of Cu, Fe, Sr, and Zn in a concentration between about 0.05 and 5 wt.% per trace element chemically dissolved in the biocompatible material; from about 40 to about 80 wt% B 2 O 3; one or more alkali oxides selected from the group consisting of Li 2 O, Na 2 O, K 2 O, and Rb 2 O; one or more alkaline earth oxides selected from the group consisting of MgO, SrO, BaO, and CaO; Cu in a concentration between about 0.1 and about 2.5 wt%; and no more than 0.1 wt.% Ca. the scaffold has a porosity between about 15 and about 90 vol.% to provide fluid flow in the scaffold for uptake of bodily fluids; the biocompatible material is glass or glass ceramic; and the biocompatible material comprises: one or more trace elements selected from the group consisting of Cu, Fe, Sr, and Zn in a concentration between about 0.05 and 5 wt.% per trace element chemically dissolved in the biocompatible material; from about 40 to about 80 wt% B 2 O 3; one or more alkali oxides selected from the group consisting of Li 2 O, Na 2 O, K 2 O, and Rb 2 O; one or more alkaline earth oxides selected from the group consisting of MgO, SrO, BaO, and CaO; Cu in a concentration between about 0.1 and about 2.5 wt%; and no more than 0.1 wt.% Ca. one or more trace elements selected from the group consisting of Cu, Fe, Sr, and Zn in a concentration between about 0.05 and 5 wt.% per trace element chemically dissolved in the biocompatible material; from about 40 to about 80 wt% B 2 O 3; one or more alkali oxides selected from the group consisting of Li 2 O, Na 2 O, K 2 O, and Rb 2 O; one or more alkaline earth oxides selected from the group consisting of MgO, SrO, BaO, and CaO; Cu in a concentration between about 0.1 and about 2.5 wt%; and no more than 0.1 wt.% Ca.
A control method for a self-driving vehicle provided with an engine as a driving source, comprising executing coast stop, the coast stop being for automatically stopping the engine in accordance with required driving force of the vehicle during the vehicle traveling at speed not more than predetermined vehicle speed; setting the required driving force so that a relative speed of the host vehicle to the preceding vehicle becomes 0 under presence of the preceding vehicle in front of the host vehicle, the relative speed being a speed when an intervehicular distance between the host vehicle and a preceding vehicle becomes closer to a predetermined distance; detecting a color of a traffic signal in front of the preceding vehicle in a traveling direction as a situation in front of the preceding vehicle, under presence of the preceding vehicle; predicting deceleration of the preceding vehicle when the color of the traffic signal encourages the preceding vehicle to stop or decelerate; characterized in that the method further comprises: setting a command signal for avoiding execution of the coast stop when the required driving force is more than a given value; prohibiting release of the coast stop for the engine even though the command signal has been set when future deceleration of the preceding vehicle is predicted during an automatic stop of the engine. setting the required driving force so that a relative speed of the host vehicle to the preceding vehicle becomes 0 under presence of the preceding vehicle in front of the host vehicle, the relative speed being a speed when an intervehicular distance between the host vehicle and a preceding vehicle becomes closer to a predetermined distance; detecting a color of a traffic signal in front of the preceding vehicle in a traveling direction as a situation in front of the preceding vehicle, under presence of the preceding vehicle; predicting deceleration of the preceding vehicle when the color of the traffic signal encourages the preceding vehicle to stop or decelerate; characterized in that the method further comprises: setting a command signal for avoiding execution of the coast stop when the required driving force is more than a given value; prohibiting release of the coast stop for the engine even though the command signal has been set when future deceleration of the preceding vehicle is predicted during an automatic stop of the engine. setting a command signal for avoiding execution of the coast stop when the required driving force is more than a given value; prohibiting release of the coast stop for the engine even though the command signal has been set when future deceleration of the preceding vehicle is predicted during an automatic stop of the engine.
A method for animating a communicative utterance comprising: receiving: a String to be animated, the String comprising a plurality of communicative utterance atoms; a plurality of Collections, each Collection including a plurality of Items comprising unique atom strings, each Collection storing Items of different lengths, wherein the Items include part-phoneme strings; and each Item including at least one Animation Snippet of the Item; hierarchically searching the Collections for Items matching substrings of the String; retrieving Animation Snippets for matched Items to cover communicative utterance atoms; and combining the retrieved Animation Snippets to animate the String. receiving: a String to be animated, the String comprising a plurality of communicative utterance atoms; a plurality of Collections, each Collection including a plurality of Items comprising unique atom strings, each Collection storing Items of different lengths, wherein the Items include part-phoneme strings; and each Item including at least one Animation Snippet of the Item; a String to be animated, the String comprising a plurality of communicative utterance atoms; a plurality of Collections, each Collection including a plurality of Items comprising unique atom strings, each Collection storing Items of different lengths, wherein the Items include part-phoneme strings; and each Item including at least one Animation Snippet of the Item; hierarchically searching the Collections for Items matching substrings of the String; retrieving Animation Snippets for matched Items to cover communicative utterance atoms; and combining the retrieved Animation Snippets to animate the String.
A method (200, 400) of forming a microelectronic assembly, comprising: providing a substrate having an exposed wiring layer; coating the wiring layer with an inorganic protective sacrificial layer; bonding a temporary substrate to the inorganic protective sacrificial layer using a temporary bonding layer; processing the substrate while the temporary substrate is bonded to the inorganic protective sacrificial layer; removing the temporary substrate and the temporary bonding layer, leaving a residue of the temporary bonding layer; exposing the substrate, the inorganic protective sacrificial layer, and the residue of the temporary bonding layer to an oxygen plasma radiation for a preselected duration to modify the moisture absorption characteristics of the inorganic protective sacrificial layer; exposing the substrate, the modified inorganic protective sacrificial layer, and the residue of the temporary bonding layer to a wet etchant for a preselected duration of time, the wet etchant decomposing the modified inorganic protective sacrificial layer and removing the inorganic protective sacrificial layer and the residue of the temporary bonding layer from the wiring layer. providing a substrate having an exposed wiring layer; coating the wiring layer with an inorganic protective sacrificial layer; bonding a temporary substrate to the inorganic protective sacrificial layer using a temporary bonding layer; processing the substrate while the temporary substrate is bonded to the inorganic protective sacrificial layer; removing the temporary substrate and the temporary bonding layer, leaving a residue of the temporary bonding layer; exposing the substrate, the inorganic protective sacrificial layer, and the residue of the temporary bonding layer to an oxygen plasma radiation for a preselected duration to modify the moisture absorption characteristics of the inorganic protective sacrificial layer; exposing the substrate, the modified inorganic protective sacrificial layer, and the residue of the temporary bonding layer to a wet etchant for a preselected duration of time, the wet etchant decomposing the modified inorganic protective sacrificial layer and removing the inorganic protective sacrificial layer and the residue of the temporary bonding layer from the wiring layer.
Central valve for a pivoting motor adjuster, comprising a housing tube which has a first working port, a supply port, a second working port and a tank outlet port, wherein the working ports (A, B) are formed by in each case one or more radial recesses (97, 99) provided so as to have an equal spacing from a first end of the housing tube in the axial direction, a piston which is surrounded by the housing tube and which is movable relative to the housing tube, wherein in a first position of the piston, the first working part is connected to the supply port, and the second working port is connected to the tank outlet port, in a second position of the piston, said piston is positioned in a central position, and in a third position of the piston, the second working port is connected to the supply port, and the first working port is connected to the tank outlet port, wherein, on its outer side, the piston bears one or more first check valves which open a flow path from the first working port to the second working port between an outer side of the piston and an inner side of the housing tube whenever the piston is in its third position and a pressure which exceeds a threshold value prevails at the first working port.
A disc brake device in which a moment (M1, M2) acts on a pad (3a, 4a) in a direction in which a rotation-in side portion is pushed up toward a radially outer side during braking, the disc brake device comprising: the pad (3a, 4a) including a pin insertion portion (12c, 12d) and a clip insertion portion; a pad support member, including a pin (11c, 11d) inserted into the pin insertion portion (12c, 12d) in an axial direction, and supporting the pad (3a, 4a) so that the pad (3a, 4a) is movable in the axial direction; and a pad clip (20a, 20b, 20c), including a pad pressing portion (60a, 60b, 60c, 60d) inserted into the clip insertion portion in the axial direction, and configured to press the pad (3a, 4a) radially outward, wherein the pad clip (20a, 20b, 20c) is configured to apply a pressing force to the pad (3a, 4a) so that a radially inner side portion of an inner peripheral surface of the pin insertion portion (12c, 12d) is pressed against a radially inner side portion of the pin (11c, 11d), characterized in that the pad clip (20a, 20b, 20c) is elastically deformed between the pad (3a, 4a) and the pin (11c, 11d), and applies the pressing force radially outward to the pad (3a, 4a). the pad (3a, 4a) including a pin insertion portion (12c, 12d) and a clip insertion portion; a pad support member, including a pin (11c, 11d) inserted into the pin insertion portion (12c, 12d) in an axial direction, and supporting the pad (3a, 4a) so that the pad (3a, 4a) is movable in the axial direction; and a pad clip (20a, 20b, 20c), including a pad pressing portion (60a, 60b, 60c, 60d) inserted into the clip insertion portion in the axial direction, and configured to press the pad (3a, 4a) radially outward, wherein the pad clip (20a, 20b, 20c) is configured to apply a pressing force to the pad (3a, 4a) so that a radially inner side portion of an inner peripheral surface of the pin insertion portion (12c, 12d) is pressed against a radially inner side portion of the pin (11c, 11d), characterized in that the pad clip (20a, 20b, 20c) is elastically deformed between the pad (3a, 4a) and the pin (11c, 11d), and applies the pressing force radially outward to the pad (3a, 4a).
Method for sending a signal by a first node (100,214), which first node (100,214) communicates with a second node (110,220) via radio communication, which radio communication is performed by multi carrier transmission and which first node (100,214) uses a carrier having a frequency range having a lower end and an upper end, the method comprising the step of: transmitting (120,240) a first end-marker signal (A11, B11, C11, D11,E11, F11, G11, H11) at or close to the lower end of the frequency range, which first end-marker signal is intended to be received and used by the second node (110,220) for identifying the lower end of the frequency range of the used carrier; and transmitting a second end-marker signal (A22, B22, C22, D22, E22, F22, G22, H22) at or close to the upper end of the frequency range, which second end-marker signal is intended to be received and used by the second node (110,220) for identifying the upper end of the frequency range of the used carrier. transmitting (120,240) a first end-marker signal (A11, B11, C11, D11,E11, F11, G11, H11) at or close to the lower end of the frequency range, which first end-marker signal is intended to be received and used by the second node (110,220) for identifying the lower end of the frequency range of the used carrier; and transmitting a second end-marker signal (A22, B22, C22, D22, E22, F22, G22, H22) at or close to the upper end of the frequency range, which second end-marker signal is intended to be received and used by the second node (110,220) for identifying the upper end of the frequency range of the used carrier.
Laundry processing apparatus (10, 10a) with a laundry processing device (12, 12a), in particular a washing machine, a washer-dryer and/or a tumble dryer, with at least one washing and/or drying tub for receiving an item of laundry to be processed, with a base body, which has at least one door for bounding the washing and/or drying tub and with a projection unit (20, 20a), which is at least provided to output at least one image (22, 22', 22a), in particular at least with device information of the laundry processing device (12, 12a), by means of a projection, wherein the projection unit (20, 20a) comprises at least one projector (24, 24a), which is integrated at least partially into the door, characterised in that the projector (24, 24a) is arranged in a lower half of the door between an outer frame and an inner frame of a leaf of the door.
A tool assembly (10, 10a) comprising a driving tool (12, 12a) having a housing (20, 20b), a motor (22, 22b), an output member (26, 26b) and a transmission (24, 24b) for rotatably coupling the output member (26, 26b) to the motor (22, 22b), the motor (22, 22b) and the transmission (24, 24b) being housed in the housing (20, 20b), the tool assembly (10, 10a) being characterized in that it includes a holder assembly (14, 14a, 14b) with a leg (60, 60b, 60c), a fastener guide (62, 62b, 62c, 62d) and an adjustment mechanism (64, 64a, 64b), the leg (60, 60b, 60c) being telescopically coupled to the housing (20, 20b), the fastener guide (62, 62b, 62c, 62d) including a longitudinally extending groove, which is adapted to support a threaded fastener, the adjustment mechanism (64, 64a, 64b) coupling the fastener guide (62, 62b, 62c, 62d) to the leg (60, 60b, 60c) on a side of the leg (60, 60b, 60c) opposite the housing (20, 20b), the adjustment mechanism (64, 64a, 64b) being configured to vary a distance between the groove and a rotational axis of the output member (26, 26b).
A wing for deployment from an air frame, comprising: a wing box (20,108,208,308,400) having a shape and outer mold line OML to form a first portion (24,110,210,310) of the wing extending from a wing root (28,114,214,314) attached to the air frame (106,206,306,402) along at least a portion of the wing span and extending aft along at least portion of the wing chord length; and a skin (30,116,216,316,404) attached to the wing box, said skin having a shape and OML of a second portion (34,118,218,318) of the wing; characterized in that it further comprises a plurality of plates (40,122,222,322,406) when assembled having the shape and OML of at least a sub-portion of the second portion of the wing, said plates affixed to corresponding locations on said skin, said skin and plates folded and stored in a constrained volume with the wing box; and an inflation mechanism (50,124,224,324) in the wing box configured to inflate the skin to form said second portion of the wing and thereby assemble the plates to reinforce said sub-portion of the wing. a wing box (20,108,208,308,400) having a shape and outer mold line OML to form a first portion (24,110,210,310) of the wing extending from a wing root (28,114,214,314) attached to the air frame (106,206,306,402) along at least a portion of the wing span and extending aft along at least portion of the wing chord length; and a skin (30,116,216,316,404) attached to the wing box, said skin having a shape and OML of a second portion (34,118,218,318) of the wing; characterized in that it further comprises a plurality of plates (40,122,222,322,406) when assembled having the shape and OML of at least a sub-portion of the second portion of the wing, said plates affixed to corresponding locations on said skin, said skin and plates folded and stored in a constrained volume with the wing box; and an inflation mechanism (50,124,224,324) in the wing box configured to inflate the skin to form said second portion of the wing and thereby assemble the plates to reinforce said sub-portion of the wing.