mhurhangee/patent-ind-claim-en huggingface dataset:
An off-road excavation apparatus comprising: a chassis having a length that extends from a front end to a rear end of the chassis, the chassis also having a width oriented perpendicular to the length; a boom pivotally attached to the rear end of the chassis; a cutting component mounted to the boom, wherein the cutting component includes a terrain leveler cutting drum having a length that extends a majority of the width of the chassis, the cutting drum being rotatable about a central axis that extends across the width of the chassis; a shroud structure at least partially covering the cutting component; a source of vacuum in fluid communication with an interior of the shroud structure for drawing air containing dust from the interior of the shroud structure; an air cleaner for removing dust from the air drawn from the interior of the shroud structure by the source of vacuum; characterized by a dust barrier that projects downwardly from the shroud structure, the dust barrier extending along at least a portion of a perimeter of the shroud structure, and the dust barrier having a construction that is pervious to debris generated by the cutting component and that provides gradually reduced restriction to inward air flow through the dust barrier as the dust barrier extends downwardly from the shroud structure; the cutting drum including a cutting diameter of about 1.7 meters and a length of about 3.7 meters, and wherein the source of vacuum provides a vacuum air flow rate of at least 12 cubic meters per minute for each 0.3 meter of length of the cutting drum. a chassis having a length that extends from a front end to a rear end of the chassis, the chassis also having a width oriented perpendicular to the length; a boom pivotally attached to the rear end of the chassis; a cutting component mounted to the boom, wherein the cutting component includes a terrain leveler cutting drum having a length that extends a majority of the width of the chassis, the cutting drum being rotatable about a central axis that extends across the width of the chassis; a shroud structure at least partially covering the cutting component; a source of vacuum in fluid communication with an interior of the shroud structure for drawing air containing dust from the interior of the shroud structure; an air cleaner for removing dust from the air drawn from the interior of the shroud structure by the source of vacuum; characterized by a dust barrier that projects downwardly from the shroud structure, the dust barrier extending along at least a portion of a perimeter of the shroud structure, and the dust barrier having a construction that is pervious to debris generated by the cutting component and that provides gradually reduced restriction to inward air flow through the dust barrier as the dust barrier extends downwardly from the shroud structure; the cutting drum including a cutting diameter of about 1.7 meters and a length of about 3.7 meters, and wherein the source of vacuum provides a vacuum air flow rate of at least 12 cubic meters per minute for each 0.3 meter of length of the cutting drum.
Method for configuring an actuator for the operation of a moving element for closure, solar protection, privacy or screening, wherein the actuator comprises a gear motor and a gear motor electronic control unit , said electronic control unit incorporating a memory in which different ranges of travel of the element have been pre-recorded, wherein the initial data recorded in the memory define the magnitudes of the different ranges used in the operation of the actuator, said method comprising a step for the relative modification of the magnitude of at least one range constituting a part of travel in relation to the initial data for the definition of said range.
A video alignment system comprising: a light source for illuminating a spot in a scene, the light source being temporally modulated in cycles according to a pseudorandom noise code having a corresponding correlator function; a video camera that captures digital images of the scene; and a processor configured to receive frames of digital image data from the video camera, form correlation sums that are sums of products of video pixel intensities and correlator function values for each frame, normalize the correlation sums of a cycle to +1 vote for positive correlation sums and -1 vote for negative correlation sums, and identify a pixel in the digital images as a location of the spot on the basis of pixel vote totals accumulated during at least two cycles. a light source for illuminating a spot in a scene, the light source being temporally modulated in cycles according to a pseudorandom noise code having a corresponding correlator function; a video camera that captures digital images of the scene; and a processor configured to receive frames of digital image data from the video camera, form correlation sums that are sums of products of video pixel intensities and correlator function values for each frame, normalize the correlation sums of a cycle to +1 vote for positive correlation sums and -1 vote for negative correlation sums, and identify a pixel in the digital images as a location of the spot on the basis of pixel vote totals accumulated during at least two cycles. receive frames of digital image data from the video camera, form correlation sums that are sums of products of video pixel intensities and correlator function values for each frame, normalize the correlation sums of a cycle to +1 vote for positive correlation sums and -1 vote for negative correlation sums, and identify a pixel in the digital images as a location of the spot on the basis of pixel vote totals accumulated during at least two cycles.
A bioreactor for use in culturing cells, and including a plurality of carriers, each of said carriers including a surface having an area adapted for cell adherence and an area adapted for preventing cell adherence, wherein the bioreactor comprises a stack of carriers, the area for preventing cell adherence being associated with a piece of transparent material (T) positioned in a space between adjacent carriers and completely filling the space between adjacent carriers.
An electrical penetrator unit, comprising: an outer sleeve of non-conductive, insulating material having a through bore and opposite first and second ends ; an electrical conductor shaft extending through the sleeve and having opposite first and second ends extending outwardly from opposite ends of the sleeve, the conductor shaft comprising first and second conductor portions (16, 18; 102, 105) extending inwardly through the first and second ends of the sleeve, respectively, the conductor portions being in electrical communication inside the sleeve; and a first hermetic seal extending between the first conductor portion and the outer sleeve; characterised by a second hermetic seal extending between the second conductor portion and the outer sleeve, and in that the first conductor portion comprises a flexible conductor and the second conductor portion comprises a rigid metal conductor , the conductors having inner ends which are in electrical communication and the flexible conductor being adapted to move to accommodate thermal expansion and contraction while maintaining electrical communication between the conductors. an outer sleeve of non-conductive, insulating material having a through bore and opposite first and second ends ; an electrical conductor shaft extending through the sleeve and having opposite first and second ends extending outwardly from opposite ends of the sleeve, the conductor shaft comprising first and second conductor portions (16, 18; 102, 105) extending inwardly through the first and second ends of the sleeve, respectively, the conductor portions being in electrical communication inside the sleeve; and a first hermetic seal extending between the first conductor portion and the outer sleeve; characterised by a second hermetic seal extending between the second conductor portion and the outer sleeve, and in that the first conductor portion comprises a flexible conductor and the second conductor portion comprises a rigid metal conductor , the conductors having inner ends which are in electrical communication and the flexible conductor being adapted to move to accommodate thermal expansion and contraction while maintaining electrical communication between the conductors.
A method for controlling traffic of a multi-mode base station that supports multiple wireless systems, comprising: • obtaining target traffic of any wireless system among the multiple wireless systems in the multi-mode base station according to a preset traffic allocation ratio applied to a bandwidth of the multi-mode base station; • decreasing an increment step size of the wireless system if current traffic of the wireless system is greater than the target traffic and bandwidth of the multi - mode base station is idle; • increasing a decrement step size of the wireless system if current traffic of the wireless system is greater than the target traffic and bandwidth of the multi-mode base station is congested; • increasing the increment step size of the wireless system if the current traffic of the wireless system is not greater than the target traffic and the bandwidth of the multi-mode base station is idle; • decreasing the decrement step size of the wireless system if the current traffic of the wireless system is not greater than the target traffic and the bandwidth of the multi-mode base station is congested; and • controlling traffic of the wireless system in the multi-mode base station according to the adjusted increment step size or decrement step size, wherein the controlling the traffic of the wireless system comprises rising or reducing the traffic of the wireless system. • obtaining target traffic of any wireless system among the multiple wireless systems in the multi-mode base station according to a preset traffic allocation ratio applied to a bandwidth of the multi-mode base station; • decreasing an increment step size of the wireless system if current traffic of the wireless system is greater than the target traffic and bandwidth of the multi - mode base station is idle; • increasing a decrement step size of the wireless system if current traffic of the wireless system is greater than the target traffic and bandwidth of the multi-mode base station is congested; • increasing the increment step size of the wireless system if the current traffic of the wireless system is not greater than the target traffic and the bandwidth of the multi-mode base station is idle; • decreasing the decrement step size of the wireless system if the current traffic of the wireless system is not greater than the target traffic and the bandwidth of the multi-mode base station is congested; and • controlling traffic of the wireless system in the multi-mode base station according to the adjusted increment step size or decrement step size, wherein the controlling the traffic of the wireless system comprises rising or reducing the traffic of the wireless system.
A frequency spectrum management device , comprising a processing circuit configured to: determine, based on first reference point information and second reference point information, distances from a first secondary system managed by the frequency spectrum management device and an other secondary system to a primary system having a higher frequency spectrum utilization priority than the secondary systems, according to distances from the first secondary system and the other secondary system to a reference point, wherein the reference point is a parameter comprising a first reference point within coverage of the primary system corresponding to the first secondary system and a second reference point within coverage of the primary system corresponding to the other secondary system; determine, with respect to the first secondary system, according to the distances from the first secondary system and the other secondary system to the primary system, a distribution coefficient between the other secondary system and the first secondary system, the distribution coefficient representing an interference degree of aggregation interference generated by the other secondary system and the first secondary system against the primary system; and distribute a frequency spectrum resource for the first secondary system according to the distribution coefficient, wherein the processing circuit comprises a transceiving unit configured to receive the first reference point information and the second reference point information and transmit the distributed frequency spectrum resource to the first secondary system. determine, based on first reference point information and second reference point information, distances from a first secondary system managed by the frequency spectrum management device and an other secondary system to a primary system having a higher frequency spectrum utilization priority than the secondary systems, according to distances from the first secondary system and the other secondary system to a reference point, wherein the reference point is a parameter comprising a first reference point within coverage of the primary system corresponding to the first secondary system and a second reference point within coverage of the primary system corresponding to the other secondary system; determine, with respect to the first secondary system, according to the distances from the first secondary system and the other secondary system to the primary system, a distribution coefficient between the other secondary system and the first secondary system, the distribution coefficient representing an interference degree of aggregation interference generated by the other secondary system and the first secondary system against the primary system; and distribute a frequency spectrum resource for the first secondary system according to the distribution coefficient, wherein the processing circuit comprises a transceiving unit configured to receive the first reference point information and the second reference point information and transmit the distributed frequency spectrum resource to the first secondary system.
A compound that comprises: at least one sialidase or active portion thereof, wherein the sialidase or active portion has sialidase activity that cleaves α -Gal and α -Gal linkages; and at least one peptide or protein comprising a GAG binding domain selected from: human platelet factor 4 (SEQ ID NO:2), human interleukin 8 (SEQ ID NO:3), human antithrombin III (SEQ ID NO:4), human apoprotein E (SEQ ID NO:5), human angio-associated migratory protein (SEQ ID NO:6), or human amphiregulin (SEQ ID NO:7). at least one sialidase or active portion thereof, wherein the sialidase or active portion has sialidase activity that cleaves α -Gal and α -Gal linkages; and at least one peptide or protein comprising a GAG binding domain selected from: human platelet factor 4 (SEQ ID NO:2), human interleukin 8 (SEQ ID NO:3), human antithrombin III (SEQ ID NO:4), human apoprotein E (SEQ ID NO:5), human angio-associated migratory protein (SEQ ID NO:6), or human amphiregulin (SEQ ID NO:7).
An actuator substrate for the cultivation of biological cells, comprising at least one actuator unit, including an upper electrode and a lower electrode and an actuator element, which is arranged between the two electrodes and directly adjoins the upper and lower electrode and which is composed of at least one layer made of at least one electroactive polymer (EAP), the electrodes being arranged in the form of a layer or strips, protruding respectively beyond the EAP layer in at least one location in a direction extending parallel to the EAP layer, and these protrusions representing contact points for a voltage source.
A pig comprising disrupted α -galactosyltransferase, cytidine monophosphate-N-acetylneuraminic acid hydroxylase (CMAH) and β1, 4 N-acetylgalactosaminyltransferase (β4GalNT2) genes in the nuclear genome in at least half of the cells of said pig, wherein expression of α -galactosyltransferase, CMAH and β4GalNT2 is decreased as compared to a wild-type pig, thereby reducing the level of αGal antigens, Neu5GC antigens and Sd a -like antigens.
A blend consisting essentially of: from 50 to 95 percent by weight polycarbonate; and from 5 to 50 percent by weight modified methyl methacrylate polymer, wherein the modified methyl methacrylate polymer is selected from the group consisting of the modified methyl methacrylate homopolymer, modified methyl methacrylate copolymers, and combinations thereof; wherein the modified methyl methacrylate polymer has one or more end groups provided by reaction with one or more chain transfer agents selected from the group consisting of mercapto esters, and wherein the modified methyl methacrylate polymer has a weight average molecular weight, Mw, determined by gel permeation chromatography as shown in the description, of from 5,000 to 100,000 g/mole; and wherein the blend exhibits a pencil hardness equal to or greater than F measured according to ASTM D3363 - 05. from 50 to 95 percent by weight polycarbonate; and from 5 to 50 percent by weight modified methyl methacrylate polymer, wherein the modified methyl methacrylate polymer is selected from the group consisting of the modified methyl methacrylate homopolymer, modified methyl methacrylate copolymers, and combinations thereof; wherein the modified methyl methacrylate polymer has one or more end groups provided by reaction with one or more chain transfer agents selected from the group consisting of mercapto esters, and wherein the modified methyl methacrylate polymer has a weight average molecular weight, Mw, determined by gel permeation chromatography as shown in the description, of from 5,000 to 100,000 g/mole; and wherein the modified methyl methacrylate polymer is selected from the group consisting of the modified methyl methacrylate homopolymer, modified methyl methacrylate copolymers, and combinations thereof; wherein the modified methyl methacrylate polymer has one or more end groups provided by reaction with one or more chain transfer agents selected from the group consisting of mercapto esters, and wherein the modified methyl methacrylate polymer has a weight average molecular weight, Mw, determined by gel permeation chromatography as shown in the description, of from 5,000 to 100,000 g/mole; and wherein the blend exhibits a pencil hardness equal to or greater than F measured according to ASTM D3363 - 05.
A humanized antibody or binding fragment thereof selected from the group consisting of Fab-, Fab'-, Fab'-SH-, F(ab')2-, Fv-, and scFv-fragments, diabodies, triabodies, tetrabodies and single-domain antibodies, in which the CDR3 is replaced by a CDR3 scaffold which is 45 amino acids in length or longer and comprises a X 1 X 2 X 3 X 4 X 5 X n (X a X b ) z motif, wherein the X 1 X 2 X 3 X 4 X 5 motif is TTVHQ (SEQ ID NO: 153) or TSVHQ (SEQ ID NO: 154), wherein, for X n , X is any amino acid and n is 27-54, and wherein the (X a X b ) z motif is YXYXYX with X being any amino acid. wherein the X 1 X 2 X 3 X 4 X 5 motif is TTVHQ (SEQ ID NO: 153) or TSVHQ (SEQ ID NO: 154), wherein, for X n , X is any amino acid and n is 27-54, and wherein the (X a X b ) z motif is YXYXYX with X being any amino acid.
A method comprising: receiving, via first circuitry including a processor and a memory controller , a memory access request corresponding to an application for access to an address range in a memory allocation of a memory coupled to the first circuitry; and locating a metadata region within the memory allocation ; and in response to determining that the address range includes at least a portion of the metadata region : obtaining first metadata stored in the metadata region ; determining an alternate memory address in a relocation region , the determining based, at least in part, on the first metadata; and reading, at the alternate memory address, data displaced from the portion of the metadata region included in the address range, wherein the first metadata stored in the metadata region includes upper bound information that indicates an upper boundary of the memory allocation or lower bound information that indicates a lower boundary of the memory allocation . receiving, via first circuitry including a processor and a memory controller , a memory access request corresponding to an application for access to an address range in a memory allocation of a memory coupled to the first circuitry; and locating a metadata region within the memory allocation ; and in response to determining that the address range includes at least a portion of the metadata region : obtaining first metadata stored in the metadata region ; determining an alternate memory address in a relocation region , the determining based, at least in part, on the first metadata; and obtaining first metadata stored in the metadata region ; determining an alternate memory address in a relocation region , the determining based, at least in part, on the first metadata; and reading, at the alternate memory address, data displaced from the portion of the metadata region included in the address range, wherein the first metadata stored in the metadata region includes upper bound information that indicates an upper boundary of the memory allocation or lower bound information that indicates a lower boundary of the memory allocation .
An apparatus for delivering a fire suppressant to a cargo compartment of an aircraft , the apparatus comprising: a fire suppressant conduit accessing the cargo compartment through a cargo panel ; and a flexible interface between the fire suppressant conduit and the cargo panel , the flexible interface being configured to absorb at least some relative movement between the cargo panel and the fire suppressant conduit . a fire suppressant conduit accessing the cargo compartment through a cargo panel ; and a flexible interface between the fire suppressant conduit and the cargo panel , the flexible interface being configured to absorb at least some relative movement between the cargo panel and the fire suppressant conduit .
A single phase motor comprising: a stator comprising a stator core and a stator winding wound around the stator core , the stator core comprising a plurality of teeth and pole shoes extending from inner ends of the teeth in circumferential directions, the pole shoes cooperatively defining a space there between; and a rotor rotatably received in the space of the stator with an air gap formed between the pole shoes and the rotor for allowing the rotor to rotate relative to the stator , the rotor comprising magnetic poles arranged along a circumferential direction of the rotor , the pole shoes form positioning slots such that when the stator winding is de-energized a middle radial line of the magnetic pole is offset from a middle radial line of a corresponding tooth , characterized in that the positioning slots being covered by inner circumferential surfaces of the pole shoes and extend discontinuously along an axial direction of the motor. a stator comprising a stator core and a stator winding wound around the stator core , the stator core comprising a plurality of teeth and pole shoes extending from inner ends of the teeth in circumferential directions, the pole shoes cooperatively defining a space there between; and a rotor rotatably received in the space of the stator with an air gap formed between the pole shoes and the rotor for allowing the rotor to rotate relative to the stator , the rotor comprising magnetic poles arranged along a circumferential direction of the rotor , the pole shoes form positioning slots such that when the stator winding is de-energized a middle radial line of the magnetic pole is offset from a middle radial line of a corresponding tooth , characterized in that the positioning slots being covered by inner circumferential surfaces of the pole shoes and extend discontinuously along an axial direction of the motor.