mhurhangee/patent-ind-claim-en huggingface dataset:
A nonwoven fabric for an absorbent article, having a first direction (x), a second direction (y), and a thickness direction (z) that are orthogonal to each other and formed of continuous fibers, the nonwoven fabric comprising: a plurality of ridge portions that extend along the first direction; and a plurality of groove portions that extend along the first direction and have a basis weight lower than that of the plurality of ridge portions, wherein each of the plurality of ridge portions and each of the plurality of groove portions are alternately located in the second direction, and each of the plurality of ridge portions and each of the plurality of groove portions have a plurality of joining portions in which intersections of the continuous fibers are thermally joined, characterised in that each of the plurality of ridge portions has a plurality of recessed portions recessed in the thickness direction, and a base formed of the continuous fibers at a bottom of each of the plurality of recessed portions. a plurality of ridge portions that extend along the first direction; and a plurality of groove portions that extend along the first direction and have a basis weight lower than that of the plurality of ridge portions, wherein each of the plurality of ridge portions and each of the plurality of groove portions are alternately located in the second direction, and each of the plurality of ridge portions and each of the plurality of groove portions have a plurality of joining portions in which intersections of the continuous fibers are thermally joined, characterised in that each of the plurality of ridge portions has a plurality of recessed portions recessed in the thickness direction, and a base formed of the continuous fibers at a bottom of each of the plurality of recessed portions.
Process for preparing guanidino acetic acid (GAA), the process comprising (a) preparing an alkaline process solution comprising glycine, (b) reacting cyanamide with the excess glycine as comprised in the alkaline process solution, (c) separating off the guanidino acetic acid product and (d) recirculating the alkaline process solution comprising glycine; the process being characterized in that anionic impurities are removed from the process solution by electrodialysis, wherein the electrodialysis is conducted in a cell comprising at least one feed compartment comprising the alkaline process solution and at least one concentrate compartment, and wherein the pH of the alkaline process solution is between 8.5 and 11.
A dispenser with a dispenser housing ; a supply of sheet material rotatably mounted along the dispenser housing ; a feed roller comprising a feed roller body rotatably mounted along the dispenser housing adjacent the supply of sheet material so as to receive and feed sheet material from the supply of sheet material along a discharge path (P) through a discharge along the dispenser housing ; and a feed roller drive assembly including a drive motor , and a belt transmission assembly having a drive belt coupled to a drive motor pulley operatively attached to a driveshaft of the drive motor and to a feed roller pulley received within the circumferential groove defined along the feed roller body to facilitate rotation of the feed roller by operation of the drive motor , the drive belt being at least partially received within the circumferential groove defined along the feed roller body .
Apparatus for delivering a laser beam to a lens of an eye in a plurality of patterns comprising: a laser ; an optical path for directing a laser beam from the laser to the lens of the eye; a control system for at least directing the laser beam in a first pattern on a first portion of the lens of the eye; and directing the laser beam in a second pattern on a second portion of the lens of the eye; wherein the control system is capable of determining a position for a structure of the eye based upon a numerical model for the shape of the lens and the observed data; the first pattern (1301-1318) generally following the shape of the outer surface of the lens of the eye; the second pattern having a pattern to cover a specific volume of the second portion of the lens of the eye; the relationship of the first pattern to the second pattern being such that the first pattern is positioned within the lens closer to the lens outer surface than the second pattern; and, both the first and second patterns positioned within the lens of the eye such that they avoid the central portion of the lens of the eye. a laser ; an optical path for directing a laser beam from the laser to the lens of the eye; a control system for at least directing the laser beam in a first pattern on a first portion of the lens of the eye; and directing the laser beam in a second pattern on a second portion of the lens of the eye; wherein the control system is capable of determining a position for a structure of the eye based upon a numerical model for the shape of the lens and the observed data; the first pattern (1301-1318) generally following the shape of the outer surface of the lens of the eye; the second pattern having a pattern to cover a specific volume of the second portion of the lens of the eye; the relationship of the first pattern to the second pattern being such that the first pattern is positioned within the lens closer to the lens outer surface than the second pattern; and, both the first and second patterns positioned within the lens of the eye such that they avoid the central portion of the lens of the eye.
A particle collection panel configured to be disposed between a combustor shell and a combustor panel of a combustor of a gas turbine engine , the particle collection panel comprising: a plurality of particle collection chambers ; and a plurality of impingement holes , characterised in that each particle collection chamber is a cavity or a closed aperture defined in the body of the particle collection panel . a plurality of particle collection chambers ; and a plurality of impingement holes , characterised in that each particle collection chamber is a cavity or a closed aperture defined in the body of the particle collection panel .
A heat exchanger assembly comprising: an inlet manifold defining an expanding area in a direction of flow; and an inlet in flow communication with the inlet manifold , characterised in that the inlet includes spiral walls that include a height that is less than half a width of the inlet, the spiral walls for inducing a rotational inertia to flow entering the inlet manifold . an inlet manifold defining an expanding area in a direction of flow; and an inlet in flow communication with the inlet manifold , characterised in that the inlet includes spiral walls that include a height that is less than half a width of the inlet, the spiral walls for inducing a rotational inertia to flow entering the inlet manifold .
A structured light projector comprising: a light source configured to emit light; and a nanostructure array configured to form a dot pattern based on the light emitted by the light source, the nanostructure array comprising a plurality of super cells , and each of the plurality of super cells comprising a plurality of nanostructures, wherein each of the plurality of super cells comprises N sub cells (SB_k), the first through N th sub cell (SB_k) respectively comprising a plurality of first through N th nanostructures having a first through N th shape distribution, wherein phase profiles of the first through N th sub cells are associated with each other based on a predetermined rule, and wherein each of the first through N th sub cells is configured to modulate a phase of incident light based on the phase profiles of the first through N th sub cells, respectively, and a phase profile for an m th sub cell comprises a local phase profile that is common to the first through N th sub cells, and a global phase profile corresponding to a position of the super cell in which the mth sub cell is included, where m is an integer from 1 to N and N is an integer greater than or equal to 3, characterised in that the phase profile of the N sub cells (SB_k) is designed such that the local phase profile determines an intensity distribution of a dot pattern, and the global phase profile shifts a position of the dot pattern to be formed by the local phase profile. a light source configured to emit light; and a nanostructure array configured to form a dot pattern based on the light emitted by the light source, the nanostructure array comprising a plurality of super cells , and each of the plurality of super cells comprising a plurality of nanostructures, wherein each of the plurality of super cells comprises N sub cells (SB_k), the first through N th sub cell (SB_k) respectively comprising a plurality of first through N th nanostructures having a first through N th shape distribution, wherein phase profiles of the first through N th sub cells are associated with each other based on a predetermined rule, and wherein each of the first through N th sub cells is configured to modulate a phase of incident light based on the phase profiles of the first through N th sub cells, respectively, and a phase profile for an m th sub cell comprises a local phase profile that is common to the first through N th sub cells, and a global phase profile corresponding to a position of the super cell in which the mth sub cell is included, where m is an integer from 1 to N and N is an integer greater than or equal to 3, characterised in that the phase profile of the N sub cells (SB_k) is designed such that the local phase profile determines an intensity distribution of a dot pattern, and the global phase profile shifts a position of the dot pattern to be formed by the local phase profile.
An electronic device for detecting proximity of a user comprising: an antenna configured to be at least a part of an exterior of the electronic device, wherein a voltage of the antenna is a voltage of a reference capacitor serving as an equivalent circuit for the antenna, the reference capacitor having a capacitance corresponding to at least one capacitor connected to the antenna; a variable element configured to have a capacitance in a designated range, wherein the upper limit of the designated range is smaller than a capacitance of the reference capacitor ; and an amplifier connected to the variable element and configured to amplify a voltage of the variable element to a voltage of the reference capacitor and output the amplified voltage , wherein the capacitance of the reference capacitor corresponds to a change rate of the voltage of the reference capacitor during a designated time interval. an antenna configured to be at least a part of an exterior of the electronic device, wherein a voltage of the antenna is a voltage of a reference capacitor serving as an equivalent circuit for the antenna, the reference capacitor having a capacitance corresponding to at least one capacitor connected to the antenna; a variable element configured to have a capacitance in a designated range, wherein the upper limit of the designated range is smaller than a capacitance of the reference capacitor ; and an amplifier connected to the variable element and configured to amplify a voltage of the variable element to a voltage of the reference capacitor and output the amplified voltage , wherein the capacitance of the reference capacitor corresponds to a change rate of the voltage of the reference capacitor during a designated time interval.
A surgical instrument comprising: a control circuit ; and an end effector coupled to the control circuit, wherein the end effector comprises a clamp arm and an ultrasonic blade , wherein the control circuit is configured to communicatively couple to a generator configured to deliver a plurality of energy modalities to the end effector of the surgical instrument, wherein the control circuit is further configured to: determine tissue impedance of tissue in contact with the end effector of the surgical instrument; determine a tissue type based on the tissue impedance; select a first energy modality of the plurality of energy modalities; generate a first signal waveform based on the first energy modality; select a second energy modality of the plurality of energy modalities; generate a second signal waveform based on the second energy modality; and adjust a compression force applied by the end effector to tissue by changing a gap between tissue and the end effector based on a relative proportion of the first signal waveform and the second signal waveform. a control circuit ; and an end effector coupled to the control circuit, wherein the end effector comprises a clamp arm and an ultrasonic blade , wherein the control circuit is configured to communicatively couple to a generator configured to deliver a plurality of energy modalities to the end effector of the surgical instrument, wherein the control circuit is further configured to: determine tissue impedance of tissue in contact with the end effector of the surgical instrument; determine a tissue type based on the tissue impedance; select a first energy modality of the plurality of energy modalities; generate a first signal waveform based on the first energy modality; select a second energy modality of the plurality of energy modalities; generate a second signal waveform based on the second energy modality; and adjust a compression force applied by the end effector to tissue by changing a gap between tissue and the end effector based on a relative proportion of the first signal waveform and the second signal waveform. determine tissue impedance of tissue in contact with the end effector of the surgical instrument; determine a tissue type based on the tissue impedance; select a first energy modality of the plurality of energy modalities; generate a first signal waveform based on the first energy modality; select a second energy modality of the plurality of energy modalities; generate a second signal waveform based on the second energy modality; and adjust a compression force applied by the end effector to tissue by changing a gap between tissue and the end effector based on a relative proportion of the first signal waveform and the second signal waveform.
An antibody comprising a combination of a light chain variable region (VL) and a heavy chain variable region (VH), wherein: the VL comprises complementarity determining regions (CDRs) L-CDR1, L-CDR2, and L-CDR3 as set forth in SEQ ID NOs. 6, 8, and 10, respectively; and, the VH comprising CDRs H-CDR1, H-CDR2 and H-CDR3 as set forth in SEQ ID NOs. 12, 14 and 16, respectively. the VL comprises complementarity determining regions (CDRs) L-CDR1, L-CDR2, and L-CDR3 as set forth in SEQ ID NOs. 6, 8, and 10, respectively; and, the VH comprising CDRs H-CDR1, H-CDR2 and H-CDR3 as set forth in SEQ ID NOs. 12, 14 and 16, respectively.
Interface assembly for an engine controller of an engine , in particular an aircraft engine and/or gas turbine engine, which has a memory for storing at least one controller variable, the interface assembly having a first interface for communication with an input device and a second interface for communication with the engine controller, characterized in that the interface assembly has an integrity operating mode (S40) in which a change of this controller variable by means of the input device, which communicates with the engine controller via the interface assembly, is restricted, and the interface assembly has a manipulation operating mode (S50) in which a change of the controller variable by means of the input device, which communicates with the engine controller via the interface assembly, is less restricted than in the integrity operating mode, the interface assembly being switchable from the integrity operating mode to the manipulation operating mode and/or from the manipulation operating mode to the integrity operating mode based on a switching signal, in particular from a switching system which is separate from the input device. the interface assembly has an integrity operating mode (S40) in which a change of this controller variable by means of the input device, which communicates with the engine controller via the interface assembly, is restricted, and the interface assembly has a manipulation operating mode (S50) in which a change of the controller variable by means of the input device, which communicates with the engine controller via the interface assembly, is less restricted than in the integrity operating mode, the interface assembly being switchable from the integrity operating mode to the manipulation operating mode and/or from the manipulation operating mode to the integrity operating mode based on a switching signal, in particular from a switching system which is separate from the input device.
A method for manufacturing a crosslinked polyolefin separator, comprising: (S1) putting a polyolefin, a polyolefin elastomer and a first diluent into an extruder, and mixing them; (S2) putting a second diluent, an alkoxy silane containing a carbon-carbon double bond functional group, an initiator and a crosslinking catalyst into the extruder, and mixing them for reactive extrusion of a silane grafted polyolefin composition; (S3) forming the silane grafted polyolefin composition obtained by the reactive extrusion into a shape of a sheet and stretching the sheet; (S4) extracting the first diluent and the second diluent from the stretched sheet to produce a porous membrane; (S5) heat-setting the porous membrane; and (S6) crosslinking the heat-set porous membrane in the presence of moisture, wherein a weight ratio of the polyolefin and the polyolefin elastomer is 94 : 6 to 65 : 35, and a ratio of an elapsed time between the introduction of the second diluent and the extrusion to an elapsed time between the introduction of the polyolefin, the polyolefin elastomer and the first diluent and the extrusion is 0.3 to 0.7; wherein the polyolefin is polyethylene, polypropylene, polybutylene, polypentene, polyhexene, polyoctene, or their mixture; and wherein the polyolefin elastomer includes a copolymer of at least two of ethylene, propylene, butene, pentene, 4-methylpentene, hexene and octene. (S1) putting a polyolefin, a polyolefin elastomer and a first diluent into an extruder, and mixing them; (S2) putting a second diluent, an alkoxy silane containing a carbon-carbon double bond functional group, an initiator and a crosslinking catalyst into the extruder, and mixing them for reactive extrusion of a silane grafted polyolefin composition; (S3) forming the silane grafted polyolefin composition obtained by the reactive extrusion into a shape of a sheet and stretching the sheet; (S4) extracting the first diluent and the second diluent from the stretched sheet to produce a porous membrane; (S5) heat-setting the porous membrane; and (S6) crosslinking the heat-set porous membrane in the presence of moisture, wherein a weight ratio of the polyolefin and the polyolefin elastomer is 94 : 6 to 65 : 35, and a ratio of an elapsed time between the introduction of the second diluent and the extrusion to an elapsed time between the introduction of the polyolefin, the polyolefin elastomer and the first diluent and the extrusion is 0.3 to 0.7; wherein the polyolefin is polyethylene, polypropylene, polybutylene, polypentene, polyhexene, polyoctene, or their mixture; and wherein the polyolefin elastomer includes a copolymer of at least two of ethylene, propylene, butene, pentene, 4-methylpentene, hexene and octene.
A platform scale with a platform , which has a receiving surface for receiving the product to be weighed, wherein the longitudinal and width extension of the platform is a multiple of the thickness of the platform and the receiving surface lies in a receiving plane, which is spanned by the longitudinal extension and the width extension of the receiving surface, and with at least one, preferably a plurality of weighing cells for determining the weight of the product to be weighed, wherein the platform has a frame structure for stiffening the platform, and wherein the frame structure has at least one, preferably a plurality of stiffening struts extending parallel to the receiving plane and transversely over the receiving surface or along the side of the receiving surface, wherein the stiffening struts are an edge profile produced by at least one edge which comprises a plurality of mutually parallel edges characterised in that the support surface is formed by a support plate which is arranged on stiffening struts arranged at the edge with at least 5 edges and which is edged to form end faces.
A protective cover , comprising: a first case frame having a front side and an opposing back side, and comprising a mounting surface on the front side for mounting an electronic device ; a second case frame having a front side and an opposing back side, the front side of the second case frame being configured to be coupled with the back side of the first case frame, the back side of the second frame forming a back surface of the protective cover; and a plurality of electronic components interposed between the back side of the first case frame and the front side of the second case frame, each of the plurality of electronic components being separate from the electronic device and for electrically connecting to the electronic device while fixedly disposed within the protective cover when the electronic device is mounted in the mounting surface; and an electrical connecting member for connecting the plurality of electronic components and disposed behind the mounting surface between the back side of the first case frame and the front side of the second case frame, wherein the plurality of electronic components are disposed directly adjacent to the back side of the first case frame, wherein the electrical connecting member is mounted in a guide slit formed in the back side of the first case frame, without protruding from the back side of the first case frame, wherein the plurality of electronic components include an ultrasonic sensor module. a first case frame having a front side and an opposing back side, and comprising a mounting surface on the front side for mounting an electronic device ; a second case frame having a front side and an opposing back side, the front side of the second case frame being configured to be coupled with the back side of the first case frame, the back side of the second frame forming a back surface of the protective cover; and a plurality of electronic components interposed between the back side of the first case frame and the front side of the second case frame, each of the plurality of electronic components being separate from the electronic device and for electrically connecting to the electronic device while fixedly disposed within the protective cover when the electronic device is mounted in the mounting surface; and an electrical connecting member for connecting the plurality of electronic components and disposed behind the mounting surface between the back side of the first case frame and the front side of the second case frame, wherein the plurality of electronic components are disposed directly adjacent to the back side of the first case frame, wherein the electrical connecting member is mounted in a guide slit formed in the back side of the first case frame, without protruding from the back side of the first case frame, wherein the plurality of electronic components include an ultrasonic sensor module.