mhurhangee/ep-ind-claims huggingface dataset:
A method of making a dental appliance for a patient comprising: temporarily attaching a first set of retention hooks to a model of the patient's upper teeth; temporarily attaching a set of bite pads integrated with a second set of retention hooks to a model of the patient's lower teeth; encasing the models of the patent's upper and lower teeth with the temporarily attached first set of retention hooks and the set of bite pads integrated with the second set of retention hooks in plastic via a machine to form upper and lower plastic trays adapted to fit over the teeth of the patient, the machine enabling the plastic to encase the temporarily attached first set of retention hooks and the set of bite pads integrated with the second set of retention hooks; removing the upper and lower plastic trays from the models, wherein the act of removing the upper and lower plastic trays from the models releases the temporarily attached first set of retention hooks and the set of bite pads integrated with the second set of retention hooks from the respective model due to the first and second set of retention hooks being encased by the plastic; and forming the dental appliance, including the upper and lower plastic trays, by attaching a pair of elastic bands over the first and second sets of encased retention hooks. temporarily attaching a first set of retention hooks to a model of the patient's upper teeth; temporarily attaching a set of bite pads integrated with a second set of retention hooks to a model of the patient's lower teeth; encasing the models of the patent's upper and lower teeth with the temporarily attached first set of retention hooks and the set of bite pads integrated with the second set of retention hooks in plastic via a machine to form upper and lower plastic trays adapted to fit over the teeth of the patient, the machine enabling the plastic to encase the temporarily attached first set of retention hooks and the set of bite pads integrated with the second set of retention hooks; removing the upper and lower plastic trays from the models, wherein the act of removing the upper and lower plastic trays from the models releases the temporarily attached first set of retention hooks and the set of bite pads integrated with the second set of retention hooks from the respective model due to the first and second set of retention hooks being encased by the plastic; and forming the dental appliance, including the upper and lower plastic trays, by attaching a pair of elastic bands over the first and second sets of encased retention hooks.
A phase detector, comprising: a crossing-point phase detection circuit to compare signal levels of respective pairs of multiple sensor signals (U1, V1, W1) and output crossing-point phase detection signals (UV, VW, WU) indicating phases of crossing points between the respective pairs of the sensor signals (U1, V1, W1), each of the sensor signals (U1, V1, W1) having a signal level corresponding to a rotational position of a rotor of a motor having multiple coils; a crossing-point level detection circuit to detect crossing-point levels indicating signal levels of the crossing points between the respective pairs of the sensor signals and output multiple crossing-point level signals indicating the crossing-point levels detected; a signal selection circuit to select one of the sensor signals (U1, V1, W1) as a selection signal; a phase detection circuit to detect that a signal level of the selection signal has reached a threshold level, and output a phase data signal indicating a phase of the rotor corresponding to the threshold level which the signal level has reached; and a threshold-level correction circuit to correct the threshold level based on the multiple crossing-point level signals. a crossing-point phase detection circuit to compare signal levels of respective pairs of multiple sensor signals (U1, V1, W1) and output crossing-point phase detection signals (UV, VW, WU) indicating phases of crossing points between the respective pairs of the sensor signals (U1, V1, W1), each of the sensor signals (U1, V1, W1) having a signal level corresponding to a rotational position of a rotor of a motor having multiple coils; a crossing-point level detection circuit to detect crossing-point levels indicating signal levels of the crossing points between the respective pairs of the sensor signals and output multiple crossing-point level signals indicating the crossing-point levels detected; a signal selection circuit to select one of the sensor signals (U1, V1, W1) as a selection signal; a phase detection circuit to detect that a signal level of the selection signal has reached a threshold level, and output a phase data signal indicating a phase of the rotor corresponding to the threshold level which the signal level has reached; and a threshold-level correction circuit to correct the threshold level based on the multiple crossing-point level signals.
Device for evaporating volatile substances, comprising: - a porous mat impregnated with volatile substances, - a heating element that heats the porous mat for evaporating the volatile substances, and a reflective element for reflecting the heat from the heating element to said porous mat, the reflective element forming a cavity defined by a bottom and side walls where the porous mat and the heating element are placed, characterized in that the device also comprises a printed circuit board that heats the heating element placed inside the cavity defined by the reflective element. - a porous mat impregnated with volatile substances, - a heating element that heats the porous mat for evaporating the volatile substances, and a reflective element for reflecting the heat from the heating element to said porous mat, the reflective element forming a cavity defined by a bottom and side walls where the porous mat and the heating element are placed, characterized in that the device also comprises a printed circuit board that heats the heating element placed inside the cavity defined by the reflective element.
An aqueous ink for high-temperature electrochemical cell electrodes and/or electrolyte, said ink comprising: - particles of at least one mineral filler, - at least one binder, and - at least one dispersant selected from the group comprising hydrochloric acid, sulfuric acid, or polyelectrodes such as ammonium citrate and ammonium carboxylates. - particles of at least one mineral filler, - at least one binder, and - at least one dispersant selected from the group comprising hydrochloric acid, sulfuric acid, or polyelectrodes such as ammonium citrate and ammonium carboxylates.
Support for presenting information and/or displaying products comprising: - at least two panels (11, 21), at least one of which has a presentation surface on which information to be presented are included, said panels (11, 21) being mutually connected along an articulation line and each having a free edge (18, 28), the support for presenting information being designed to be closed, by mutually overlapping the panels (11, 21) bent around the articulation line; - at least one elastic hauling element connected to the free edges (18, 28) of the panels (11, 21) and designed to keep said free edges (18, 28) mutually in contact; - at least one contrast element having a first end connected to at least one of said free edges (18, 28) through the elastic hauling element, and a second end connected to at least one of said panels (11, 21), to counteract an action of the elastic hauling element; and - an intermediate panel connected to the panels (11, 21) along articulation lines, said intermediate panel further comprising a bending line which crosses the intermediate panel to allow closing the support, by mutually overlapping the panels (11, 21, 41) bent around the articulation lines (16, 26) and the bending line. characterized in that the contrast element comprises at least two tongues connected to the second end, each being connected to a respective panel (11, 21). - at least two panels (11, 21), at least one of which has a presentation surface on which information to be presented are included, said panels (11, 21) being mutually connected along an articulation line and each having a free edge (18, 28), the support for presenting information being designed to be closed, by mutually overlapping the panels (11, 21) bent around the articulation line; - at least one elastic hauling element connected to the free edges (18, 28) of the panels (11, 21) and designed to keep said free edges (18, 28) mutually in contact; - at least one contrast element having a first end connected to at least one of said free edges (18, 28) through the elastic hauling element, and a second end connected to at least one of said panels (11, 21), to counteract an action of the elastic hauling element; and - an intermediate panel connected to the panels (11, 21) along articulation lines, said intermediate panel further comprising a bending line which crosses the intermediate panel to allow closing the support, by mutually overlapping the panels (11, 21, 41) bent around the articulation lines (16, 26) and the bending line.
A line driver (200, 300, 500, 600) comprising: differential output nodes (104, 106; 506, 508; 606, 608) leaving a corresponding voltage headroom for transistors of a stage connected to the differential output nodes (104, 106; 506, 508; 606, 608); circuitry (202, 306, 502, 602) for driving the differential output nodes (104, 106; 506, 508; 606, 608) configured to provide a differential output current, the circuitry connected to the differential output nodes without being stacked below the differential output nodes; and a current mirror stage (206, 314, 504, 604) connected to the differential output nodes (104, 106; 506, 508; 606, 608) and an output of the circuitry for driving, the current mirror stage configured to mirror the differential output current to the differential output nodes (104, 106; 506, 508; 606, 608), whereby operation of the circuitry for driving is decoupled from and therefore not limited by the voltage headroom. differential output nodes (104, 106; 506, 508; 606, 608) leaving a corresponding voltage headroom for transistors of a stage connected to the differential output nodes (104, 106; 506, 508; 606, 608); circuitry (202, 306, 502, 602) for driving the differential output nodes (104, 106; 506, 508; 606, 608) configured to provide a differential output current, the circuitry connected to the differential output nodes without being stacked below the differential output nodes; and a current mirror stage (206, 314, 504, 604) connected to the differential output nodes (104, 106; 506, 508; 606, 608) and an output of the circuitry for driving, the current mirror stage configured to mirror the differential output current to the differential output nodes (104, 106; 506, 508; 606, 608), whereby operation of the circuitry for driving is decoupled from and therefore not limited by the voltage headroom.
A method for manufacturing a multi-chip system in a package (MCSiP) comprising a plurality of layers for a camera, the method characterized by: positioning a plurality of dies within a frame in a position that facilitates interconnecting the dies, each die operable to provide a functional component of a computing system of the camera, the computing system operable to receive a signal describing electromagnetic radiation detected by an imaging sensor and facilitate generating an image according to the signal; depositing an encapsulant outwardly from the dies; curing the encapsulant in order to hold the dies in their positions; and removing the frame, further comprising interconnecting the dies according to a photolithographic technique. positioning a plurality of dies within a frame in a position that facilitates interconnecting the dies, each die operable to provide a functional component of a computing system of the camera, the computing system operable to receive a signal describing electromagnetic radiation detected by an imaging sensor and facilitate generating an image according to the signal; depositing an encapsulant outwardly from the dies; curing the encapsulant in order to hold the dies in their positions; and removing the frame, further comprising interconnecting the dies according to a photolithographic technique.
A rotary knife assembly comprising: a rotatable core; and a plurality of knife blades extending from the rotatable core for cutting of one or more deformable packages positioned within one or more package cavities of a forming drum; characterized in that the rotary knife assembly further comprises; a heating element coupled with the plurality of knife blades, the heating element is configured to heat the plurality of knife blades; and one or more package guides interposed between each of the plurality of knife blades, wherein the one or more package guides include: a guide face configured to couple along the one or more deformable packages as the rotatable core is rotated, the guide face biases the one or more deformable packages away from the plurality of heated knife blades, wherein the guide face is configured to couple along the one or more deformable packages and to bias the one or more deformable packages toward the one or more package cavities until a discharge conveyor belt biases the one or more deformable packages toward the one or more package cavities; and an insulation element interposed between the heating element and the guide face, the insulation element reduces heat transfer to the guide face. a rotatable core; and a plurality of knife blades extending from the rotatable core for cutting of one or more deformable packages positioned within one or more package cavities of a forming drum; characterized in that the rotary knife assembly further comprises; a heating element coupled with the plurality of knife blades, the heating element is configured to heat the plurality of knife blades; and one or more package guides interposed between each of the plurality of knife blades, wherein the one or more package guides include: a guide face configured to couple along the one or more deformable packages as the rotatable core is rotated, the guide face biases the one or more deformable packages away from the plurality of heated knife blades, wherein the guide face is configured to couple along the one or more deformable packages and to bias the one or more deformable packages toward the one or more package cavities until a discharge conveyor belt biases the one or more deformable packages toward the one or more package cavities; and an insulation element interposed between the heating element and the guide face, the insulation element reduces heat transfer to the guide face. a guide face configured to couple along the one or more deformable packages as the rotatable core is rotated, the guide face biases the one or more deformable packages away from the plurality of heated knife blades, wherein the guide face is configured to couple along the one or more deformable packages and to bias the one or more deformable packages toward the one or more package cavities until a discharge conveyor belt biases the one or more deformable packages toward the one or more package cavities; and an insulation element interposed between the heating element and the guide face, the insulation element reduces heat transfer to the guide face.
Wooden board comprising a first end element and a second end element and a middle element extending between the end elements, which comprises a middle element jacket surface, wherein each of the first and second end elements is configured as a front side (12, 13) of the wooden board, wherein an intermediate piece (6, 7) joins at least one of the front sides (12, 13), wherein the intermediate piece (6, 7) is configured as an intermediate piece jacket surface (8, 9), which extends from the front side to the middle element jacket surface, wherein at least one of the first and second intermediate pieces (6, 7) is covered by a protective plastic layer (10, 20) and wherein the front side of the corresponding intermediate piece is covered with a protective plastic layer, wherein at least a shoulder (11, 21) is provided between the middle element jacket surface and the intermediate piece jacket surface (8, 9), such that the protective layer (10, 20) extends to the shoulder (11, 21), characterized in that the intermediate piece (6, 7) of the end element (2, 3) comprises a first cross sectional area on the front side (12, 13) which is greater than a second cross sectional area of the intermediate piece (6, 7) of the end element (2, 3), whereby the first cross sectional area has a greater distance from the shoulder (11, 21) than the second cross sectional area.
Tub support made of a rigid foam, in particular particle foam, comprising side walls (2, 3) and end walls (4, 5), the tub support being variable in length and/or width as a result of a plurality plug-in recesses, characterised in that two or more rows of plug-in recesses are formed one next to the other in a side wall (2, 3) in a longitudinal extension of the side wall (2, 3), which rows can optionally be used for the plug-in arrangement of the end walls (4, 5) which have corresponding plug-in formations, so that an individual length of the tub support can be set by corresponding plug-in assignment of an end wall (4, 5) to the rows of plug-in recesses.
A release device for disengaging a medical implant from an insertion device, in which the implant is releasable by a relative movement between a first insertion element and a second insertion element (52, 54), comprising a body having a proximal end, which faces towards a user in the usage state, and a distal end, which is remote from the user in the usage state, wherein a toothed rack having a first speed range and a second speed range is provided between the proximal end and the distal end (12, 14), wherein the toothed rack is provided to generate a targeted relative movement between the first insertion element and the second insertion element (52, 54) of the insertion device, characterised in that the first speed range and the second speed range (16, 18) are situated on opposing regions of the toothed rack.
An ultrasound scanning device (102, 202, 302, 402, 502, 602, 702), comprising: a housing configured for handheld use; an ultrasound assembly (110, 210) at least partially disposed within the housing and configured to obtain ultrasound data; a display (112, 212, 312, 512, 712) coupled to the housing; and a processor disposed within the housing, wherein the processor is in communication with the ultrasound assembly and the display, the processor operable to: receive a selection of a scanning procedure to be completed using the ultrasound assembly; receive ultrasound data from the ultrasound assembly; filter the received ultrasound data, based on the scanning procedure, to segregate ultrasound data relevant to the scanning procedure from ultrasound data irrelevant to the scanning procedure; store the relevant ultrasound data; discard the irrelevant ultrasound data without an image being generated based on said irrelevant ultrasound data; and output a graphical representation associated with the relevant ultrasound data to the display. a housing configured for handheld use; an ultrasound assembly (110, 210) at least partially disposed within the housing and configured to obtain ultrasound data; a display (112, 212, 312, 512, 712) coupled to the housing; and a processor disposed within the housing, wherein the processor is in communication with the ultrasound assembly and the display, the processor operable to: receive a selection of a scanning procedure to be completed using the ultrasound assembly; receive ultrasound data from the ultrasound assembly; filter the received ultrasound data, based on the scanning procedure, to segregate ultrasound data relevant to the scanning procedure from ultrasound data irrelevant to the scanning procedure; store the relevant ultrasound data; discard the irrelevant ultrasound data without an image being generated based on said irrelevant ultrasound data; and output a graphical representation associated with the relevant ultrasound data to the display. receive a selection of a scanning procedure to be completed using the ultrasound assembly; receive ultrasound data from the ultrasound assembly; filter the received ultrasound data, based on the scanning procedure, to segregate ultrasound data relevant to the scanning procedure from ultrasound data irrelevant to the scanning procedure; store the relevant ultrasound data; discard the irrelevant ultrasound data without an image being generated based on said irrelevant ultrasound data; and output a graphical representation associated with the relevant ultrasound data to the display.
An LED filament, comprising: a first LED filament portion comprising a plurality of first LEDs adapted to emit first LED filament light; a second LED filament portion parallel to the first LED filament portion and comprising a plurality of second LEDs adapted to emit second LED filament light; and at least one light-blocking wall arranged between the first LED filament portion and the second LED filament portion to reduce or prevent optical cross-talk between the first LEDs of the first LED filament portion and the second LEDs of the second LED filament portion, wherein the first LED filament portion comprises a first elongated carrier, wherein the second LED filament portion comprises a second elongated carrier, wherein the first elongated carrier is mechanically connected to the second elongated carrier by at least one non-transparent layer, and wherein said at least one light-blocking wall is formed by said at least one non-transparent layer. a first LED filament portion comprising a plurality of first LEDs adapted to emit first LED filament light; a second LED filament portion parallel to the first LED filament portion and comprising a plurality of second LEDs adapted to emit second LED filament light; and at least one light-blocking wall arranged between the first LED filament portion and the second LED filament portion to reduce or prevent optical cross-talk between the first LEDs of the first LED filament portion and the second LEDs of the second LED filament portion, wherein the first LED filament portion comprises a first elongated carrier, wherein the second LED filament portion comprises a second elongated carrier, wherein the first elongated carrier is mechanically connected to the second elongated carrier by at least one non-transparent layer, and wherein said at least one light-blocking wall is formed by said at least one non-transparent layer.