mhurhangee/ep-ind-claims huggingface dataset:
A method for anisotropically etching metallic substrates, comprising: forming a photoresist layer on a surface of a metallic substrate; developing the photoresist layer to define a pattern exposing a portion of the surface of the metallic substrate; forming an electrically conductive layer on a surface of the photoresist layer and the exposed portions of the surface of the metallic substrate, wherein the electrically conductive layer contacts the exposed portions of the surface of the metallic substrate to define portions of the substrate that are covered by the electrically conductive layer; and submerging the substrate, the photoresist layer, and the electrically conductive layer in an electrolyte solution; and applying a voltage between a cathode and an anode submerged in the electrolyte solution to anisotropically etch the metallic substrate at a portion of the substrate that is covered by the electrically conductive layer to form at least one etched feature in the metallic substrate. forming a photoresist layer on a surface of a metallic substrate; developing the photoresist layer to define a pattern exposing a portion of the surface of the metallic substrate; forming an electrically conductive layer on a surface of the photoresist layer and the exposed portions of the surface of the metallic substrate, wherein the electrically conductive layer contacts the exposed portions of the surface of the metallic substrate to define portions of the substrate that are covered by the electrically conductive layer; and submerging the substrate, the photoresist layer, and the electrically conductive layer in an electrolyte solution; and applying a voltage between a cathode and an anode submerged in the electrolyte solution to anisotropically etch the metallic substrate at a portion of the substrate that is covered by the electrically conductive layer to form at least one etched feature in the metallic substrate.
A composition comprising L19-TNFα as set forth in SEQ ID NO: 1, dissolved in a sodium phosphate buffer which comprises a salt at a concentration of at least about 1.5 mM, polysorbate at a concentration of about 0.005% to about 0.1% (v/v), and a stabilizer, wherein the pH of the sodium phosphate buffer is higher than 7.5 and lower than 9 wherein the salt is NaCl; wherein the sodium phosphate buffer comprises glycerol at about 0.5 to about 1.5% w/v; and wherein the stabilizer concentration is about 65 mM to about 185 mM. wherein the salt is NaCl; wherein the sodium phosphate buffer comprises glycerol at about 0.5 to about 1.5% w/v; and wherein the stabilizer concentration is about 65 mM to about 185 mM.
A mobile communications device (31, 31') including: a near field communication "NFC" transceiver (33, 33') capable of operating in a first mode and a second mode, the NFC transceiver being configured to consume less power in the second mode than in the first mode, the NFC transceiver having a load threshold level associated therewith; and a controller (34, 34') coupled with the NFC transceiver, the controller being capable of switching the NFC transceiver to the first mode when a load detected by the NFC transceiver is below the load threshold level, and switching the NFC transceiver to the second mode when the load detected by the NFC transceiver reaches the load threshold level. a near field communication "NFC" transceiver (33, 33') capable of operating in a first mode and a second mode, the NFC transceiver being configured to consume less power in the second mode than in the first mode, the NFC transceiver having a load threshold level associated therewith; and a controller (34, 34') coupled with the NFC transceiver, the controller being capable of switching the NFC transceiver to the first mode when a load detected by the NFC transceiver is below the load threshold level, and switching the NFC transceiver to the second mode when the load detected by the NFC transceiver reaches the load threshold level. switching the NFC transceiver to the first mode when a load detected by the NFC transceiver is below the load threshold level, and switching the NFC transceiver to the second mode when the load detected by the NFC transceiver reaches the load threshold level.
A refrigerator, comprising: a refrigerator body, a front side of which is open to define a first chamber; a door body, comprising a main door and a secondary door, the main door being used for opening and closing the first chamber and defining a second chamber, and the secondary door being used for opening and closing the second chamber; and a semiconductor refrigeration component, comprising a cold end and a hot end, and configured to enable the cold end to provide cold energy to the second chamber, wherein the semiconductor refrigeration component is disposed outside the second chamber, characterized in that a cooling cavity is formed at the hot end, and air in the cooling cavity is used for cooling the hot end; and the refrigerator further comprises a hot-end air outlet path, which communicates the cooling cavity and a cooling room of the refrigerator for producing cold air, and is used for conveying the air heated by the hot end to the cooling room. a refrigerator body, a front side of which is open to define a first chamber; a door body, comprising a main door and a secondary door, the main door being used for opening and closing the first chamber and defining a second chamber, and the secondary door being used for opening and closing the second chamber; and a semiconductor refrigeration component, comprising a cold end and a hot end, and configured to enable the cold end to provide cold energy to the second chamber, wherein the semiconductor refrigeration component is disposed outside the second chamber, characterized in that a cooling cavity is formed at the hot end, and air in the cooling cavity is used for cooling the hot end; and the refrigerator further comprises a hot-end air outlet path, which communicates the cooling cavity and a cooling room of the refrigerator for producing cold air, and is used for conveying the air heated by the hot end to the cooling room. a cooling cavity is formed at the hot end, and air in the cooling cavity is used for cooling the hot end; and the refrigerator further comprises a hot-end air outlet path, which communicates the cooling cavity and a cooling room of the refrigerator for producing cold air, and is used for conveying the air heated by the hot end to the cooling room.
Method for operating the externally visible lighting of a motor vehicle with side windows, wherein the operation is carried out in such a way that a multiplicity of luminous regions are sequentially varied one after the other in such a way that a light effect image continuously varying relative to the motor vehicle at least in a longitudinal direction of the motor vehicle is produced, the sequential variation of the luminous regions is carried out when the motor vehicle is driving away in such a way that the light effect image moves with at least one change boundary region (G, G', G1, G2) relative to the motor vehicle in the opposite direction to the current direction of travel thereof, wherein a change boundary region is a region in which a defined luminous region just changes from one defined state to another state, characterized in that luminous regions within the areas of the side windows are varied sequentially, and the sequential variation of the luminous regions is synchronized with a current speed of travel (v K, v K',v K") of the motor vehicle in such a way that relative to the motor vehicle a speed (v G, v G1, v G2) of the change boundary region (G, G', G1, G2) moving in the opposite direction to the current direction of travel corresponds to the current speed of travel (v K, v K',v K").
A process for preparing a semiconductor light-emitting device for mounting, the light-emitting device having a mounting face (48, 50) for mounting to a sub-mount, the process comprising: treating at least one surface (42, 46) of the light-emitting device other than the mounting face to lower a surface energy of said at least one surface, wherein said treating comprises applying a treatment material to said at least one surface of the light-emitting device, such that when mounting the light-emitting device, an underfill material applied between the mounting face and the sub-mount is inhibited from contaminating said at least one surface, characterized by, further comprising selectively treating the sub-mount to lower a surface energy of at least a portion (150, 152) of the sub-mount such that when mounting the light-emitting device the underfill material is inhibited from contaminating said portion of the sub-mount. treating at least one surface (42, 46) of the light-emitting device other than the mounting face to lower a surface energy of said at least one surface, wherein said treating comprises applying a treatment material to said at least one surface of the light-emitting device, such that when mounting the light-emitting device, an underfill material applied between the mounting face and the sub-mount is inhibited from contaminating said at least one surface, characterized by, further comprising selectively treating the sub-mount to lower a surface energy of at least a portion (150, 152) of the sub-mount such that when mounting the light-emitting device the underfill material is inhibited from contaminating said portion of the sub-mount.
A surgical system comprising: a memory storing instructions; and a processor configured to execute the instructions to analyze a plurality of surgical site scenes, each surgical site scene in the plurality of surgical site scenes being captured from reflected light of three different wavebands comprising a first waveband having a range from 450 to 580 nanometers, a second waveband having a range from 640 to 750 nanometers, and a third waveband having a range from 900 to 1080 nanometers, each of the wavebands of the three wavebands being reflected by ureter tissue and non-ureter tissue; detect a difference between a spectral reflectance of the ureter tissue and a spectral reflectance of the non-ureter tissue in each of the three wavebands; and identify the ureter tissue in the surgical site scenes based on the detected difference between spectral reflectance of the ureter tissue and the spectral reflectance of the non-ureter tissue. a memory storing instructions; and a processor configured to execute the instructions to analyze a plurality of surgical site scenes, each surgical site scene in the plurality of surgical site scenes being captured from reflected light of three different wavebands comprising a first waveband having a range from 450 to 580 nanometers, a second waveband having a range from 640 to 750 nanometers, and a third waveband having a range from 900 to 1080 nanometers, each of the wavebands of the three wavebands being reflected by ureter tissue and non-ureter tissue; detect a difference between a spectral reflectance of the ureter tissue and a spectral reflectance of the non-ureter tissue in each of the three wavebands; and identify the ureter tissue in the surgical site scenes based on the detected difference between spectral reflectance of the ureter tissue and the spectral reflectance of the non-ureter tissue. analyze a plurality of surgical site scenes, each surgical site scene in the plurality of surgical site scenes being captured from reflected light of three different wavebands comprising a first waveband having a range from 450 to 580 nanometers, a second waveband having a range from 640 to 750 nanometers, and a third waveband having a range from 900 to 1080 nanometers, each of the wavebands of the three wavebands being reflected by ureter tissue and non-ureter tissue; detect a difference between a spectral reflectance of the ureter tissue and a spectral reflectance of the non-ureter tissue in each of the three wavebands; and identify the ureter tissue in the surgical site scenes based on the detected difference between spectral reflectance of the ureter tissue and the spectral reflectance of the non-ureter tissue.
An organic light-emitting display apparatus comprising: a substrate; first electrodes arranged separate from one another on the substrate; a second electrode disposed above the first electrodes to face the first electrodes; an intermediate layer disposed between the first electrodes and the second electrode and comprising an emission layer; a first encapsulating layer disposed on the second electrode, wherein only a portion of the first encapsulating layer is patterned to have a plurality of islands, the first encapsulating layer comprising an organic material; and a second encapsulating layer covering the islands of the first encapsulating layer and comprising an inorganic material, characterized in that the portion of the first encapsulating layer corresponds to a first region of the substrate and a disjoint further portion of the first encapsulating layer corresponding to a second region of the substrate is formed as one body, and that the substrate is a bendable substrate comprising a bending region, and the first region corresponds to the bending region. a substrate; first electrodes arranged separate from one another on the substrate; a second electrode disposed above the first electrodes to face the first electrodes; an intermediate layer disposed between the first electrodes and the second electrode and comprising an emission layer; a first encapsulating layer disposed on the second electrode, wherein only a portion of the first encapsulating layer is patterned to have a plurality of islands, the first encapsulating layer comprising an organic material; and a second encapsulating layer covering the islands of the first encapsulating layer and comprising an inorganic material, characterized in that the portion of the first encapsulating layer corresponds to a first region of the substrate and a disjoint further portion of the first encapsulating layer corresponding to a second region of the substrate is formed as one body, and that the substrate is a bendable substrate comprising a bending region, and the first region corresponds to the bending region.
A security deviator for multipoint locks of the type comprising a main lock, provided with a case for containing at least one first bolt, which can move between a protruding configuration and a retracted configuration with respect to the surface of said case, controlled by a respective movement element, and at least one rod for connection with a movable element of the deviator of the type comprising a box-like containment body for at least one second bolt, which can move between a protruding configuration and a retracted configuration with respect to the surface of said box-like body, the second bolt of said deviator comprises at least one element which translates between a first extracted configuration and a retracted configuration with respect to said box-like body, provided with an internal accommodation cavity for an oscillating prong which can move between a first arrangement which is inside said translating element and a second arrangement which protrudes from the contour of said translating element, said translating element and said prong being controlled by a respective interconnection rod, said oscillating prong is constituted by a lever, which is substantially L-shaped and pivoted to said translating element in a portion thereof, provided with a first end which can move from a first arrangement of complete accommodation within the respective translating element to a second configuration of substantially radial protrusion with respect to an edge of said translating element, characterized in that said substantially L-shaped lever has a second movable end which is coupled to a pusher of said movable element which is coupled to said interconnection rod, said portion for pivoting to said translating element being substantially intermediate with respect to the two ends (17, 18).
A self-propelled harvesting machine, comprising a drive axle (1, 21) as well as a steering axle, wherein the drive axle (1, 21) is disposed below a housing which surrounds at least part of at least one working assembly of the harvesting machine, wherein longitudinal beams (3, 23) which extend in the longitudinal direction of the harvesting machine and which comprise a support surface (6, 26) are disposed on the axle body, with sections of the housing being seated on said support surface (6, 26), and in that the housing is almost flush with the ends of the longitudinal beams (3, 23) which face the direction of travel, characterized in that a respective retaining section (7, 27) which extends vertically to the support surface (6, 26) is disposed on each longitudinal beam (3, 23), on which retaining section a part of the housing is seated, and the drive axle (1, 21) has a cranked axle body (2, 22).
A method for adjusting a vibration waveform of a linear motor, applicable to an electronic device, wherein the electronic device comprises a linear motor, and the method comprises: obtaining a transient waveform of a vibration description file and expanding the transient waveform into a waveform sequence, wherein the waveform sequence is formed by a plurality of target transient waveforms, a frequency of the waveform sequence is the same as a frequency of the transient waveform of the vibration description file, and a frequency of a target transient waveform is adapted to the linear motor; and using an adjusted waveform sequence as a waveform adjustment result of the vibration description file in a case that a vibration parameter of an adjusted vibration waveform does not exceed a safety limit value. obtaining a transient waveform of a vibration description file and expanding the transient waveform into a waveform sequence, wherein the waveform sequence is formed by a plurality of target transient waveforms, a frequency of the waveform sequence is the same as a frequency of the transient waveform of the vibration description file, and a frequency of a target transient waveform is adapted to the linear motor; and using an adjusted waveform sequence as a waveform adjustment result of the vibration description file in a case that a vibration parameter of an adjusted vibration waveform does not exceed a safety limit value.
A recombinant adeno-associated viral vector (AAVr) comprising a sequence coding an antisense oligonucleotide directed against the entire +30 to +69 region of exon 53 of the pre-messenger RNA of dystrophin, said sequence consisting of the sequence SEQ ID NO: 3.
An automatic analyzer comprising: an analysis system for analyzing a specimen using a reagent, a standard solution, and an accuracy control sample; a storage unit for storing results of using the reagent, the standard solution, and the accuracy control sample in the analysis system, and an analysis result of the specimen; a display unit; an operation input unit for inputting an operator's instruction; characterized in that a display control unit is configured to cause the display unit, in accordance with the instruction from the operation input unit, to display a start and end time of using the reagent, the standard solution, and the accuracy control sample, and a start and end time of measuring the patient specimen, wherein the displayed information of the reagent, the standard solution, the accuracy control sample, and the patient specimen are expressed in graphic form as well as measurement values on the same screen while displaying whether lots/codes of the reagent, the standard solution, and the accuracy control sample are the same, and wherein the display control unit is configured to display a use time area of the used standard solution and a use time area of the used accuracy control sample in the reagent use time area; and wherein the display control unit is configured to display the reagent use time area, the standard solution use time area, and the accuracy control sample use time area, each of which is differently highlighted. an analysis system for analyzing a specimen using a reagent, a standard solution, and an accuracy control sample; a storage unit for storing results of using the reagent, the standard solution, and the accuracy control sample in the analysis system, and an analysis result of the specimen; a display unit; an operation input unit for inputting an operator's instruction; characterized in that a display control unit is configured to cause the display unit, in accordance with the instruction from the operation input unit, to display a start and end time of using the reagent, the standard solution, and the accuracy control sample, and a start and end time of measuring the patient specimen, wherein the displayed information of the reagent, the standard solution, the accuracy control sample, and the patient specimen are expressed in graphic form as well as measurement values on the same screen while displaying whether lots/codes of the reagent, the standard solution, and the accuracy control sample are the same, and wherein the display control unit is configured to display a use time area of the used standard solution and a use time area of the used accuracy control sample in the reagent use time area; and wherein the display control unit is configured to display the reagent use time area, the standard solution use time area, and the accuracy control sample use time area, each of which is differently highlighted.
A box of an auxiliary converter for a railway vehicle, the auxiliary converter being of the modular type, that is to say, whereof each of the functions is performed by an associated functional module, the box including a fixed part, for fastening the auxiliary converter on the railway vehicle, and at least one moving part (30, 31, 32), for receiving each of the functional modules of the auxiliary converter, the box being characterized in that the moving part (30, 31, 32) is hinged to the fixed part so as to be movable between a first position, in which the box is closed to protect the functional modules then located inside the volume delimited by the closed box, and a second position, in which the box is open to access the functional modules then located outside the volume delimited by the closed box, the box having, in the first position of said at least one moving part, an outer shape substantially corresponding to a rectangular parallelepiped, a parting plane subdividing the box so as to delimit the fixed part and said at least one moving part therein, the parting plane obliquely intersecting end faces (23, 25) of the rectangular parallelepiped formed by the box. the box having, in the first position of said at least one moving part, an outer shape substantially corresponding to a rectangular parallelepiped, a parting plane subdividing the box so as to delimit the fixed part and said at least one moving part therein, the parting plane obliquely intersecting end faces (23, 25) of the rectangular parallelepiped formed by the box.
A pergola-type canopy, of the type comprising a frame of two parallel longitudinal members (12, 13), on each of which an end (14, 15) of a transverse end member slides, the edge of a covering awning being fixed to said member, said awning being adapted to be extended and gathered, with corresponding movement means, thanks to the guided translation of the transverse end member, first ends (21, 22) of said longitudinal members (12, 13) being fixable to a wall or supported by corresponding stanchions, the second ends (23, 24) of said longitudinal members (12, 13) being supported by corresponding stanchions (25, 26), said means for the movement of said awning being constituted by a motorized winding shaft for said awning, said transverse end member pulling said awning by way of means for the continuous tensioning of the awning, characterized in that automatic electrically-actuated engagement means are provided for the reversible locking of the transverse end member in the stroke limit configuration with the awning extended at the end of the unwinding stroke of the awning.