mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging device comprising: an imaging unit having an imaging element formed of a plurality of pixels, and configured to perform imaging under a first exposure condition to generate first image data and to perform imaging under a second exposure condition different from the first exposure condition to generate second image data, wherein the first exposure condition results in an overexposed image, and the second exposure condition results in an underexposed image; an image composition unit configured to generate composite image data with an expanded dynamic range based on the first image data and the second image data; and an image file generation unit configured to generate an image file, characterized in that the image file generation unit is configured to generate an image file in which the first image data as raw data, the second image data as raw data, the composite image data as raw data, position information related to positions of pixels mutually replaced in a first image corresponding to the first image data and a second image corresponding to the second image data when the image composition unit generates the composite image data, and information data that indicates what kind of replacement is performed, are recorded in association with one another. an imaging unit having an imaging element formed of a plurality of pixels, and configured to perform imaging under a first exposure condition to generate first image data and to perform imaging under a second exposure condition different from the first exposure condition to generate second image data, wherein the first exposure condition results in an overexposed image, and the second exposure condition results in an underexposed image; an image composition unit configured to generate composite image data with an expanded dynamic range based on the first image data and the second image data; and an image file generation unit configured to generate an image file, characterized in that the image file generation unit is configured to generate an image file in which the first image data as raw data, the second image data as raw data, the composite image data as raw data, position information related to positions of pixels mutually replaced in a first image corresponding to the first image data and a second image corresponding to the second image data when the image composition unit generates the composite image data, and information data that indicates what kind of replacement is performed, are recorded in association with one another.
A compound of Formula I, or a pharmaceutically acceptable salt, thereof: Z-L 1 -D (Formula I) wherein: D is represented by the following structural formula: R 1 is -F; R 2 is -methyl; -L 1 -Z is (i) -(C 1 -C 4 alkylene)-OR 6 , -(C 1 -C 4 alkylene)-SR 6 , or -(C 1 -C 4 alkylene)-N(R 6 ) 2 ; or (ii) -(C 1 -C 5 alkylene)-NR 5 C(=O)-(C 1 -C 5 alkylene)-OR 6 , -(C 1 -C 5 alkylene)-NR 5 C(=O)-(C 1 -C 5 alkylene)-SR 6 , -(C 1 -C 5 alkylene)-S-(C 1 -C 5 alkylene)-SR 6 , or -(C 1 -C 5 alkylene)-S-(C 1 -C 5 alkylene)-SSR 6 ; R 5 is independently -H, methyl, or benzyl; and R 6 is independently -H, methyl, or benzyl with the proviso that -L 1 -Z cannot be -CH 2 OH. D is represented by the following structural formula: R 1 is -F; R 2 is -methyl; -L 1 -Z is (i) -(C 1 -C 4 alkylene)-OR 6 , -(C 1 -C 4 alkylene)-SR 6 , or -(C 1 -C 4 alkylene)-N(R 6 ) 2 ; or (ii) -(C 1 -C 5 alkylene)-NR 5 C(=O)-(C 1 -C 5 alkylene)-OR 6 , -(C 1 -C 5 alkylene)-NR 5 C(=O)-(C 1 -C 5 alkylene)-SR 6 , -(C 1 -C 5 alkylene)-S-(C 1 -C 5 alkylene)-SR 6 , or -(C 1 -C 5 alkylene)-S-(C 1 -C 5 alkylene)-SSR 6 ; R 5 is independently -H, methyl, or benzyl; and R 6 is independently -H, methyl, or benzyl with the proviso that -L 1 -Z cannot be -CH 2 OH.
Method for feeding in and for handling waste material in the channel section of a pneumatic waste material conveying system, in which method waste material or recycleable material is fed into a feed-in container from the input aperture of at least two input points of the pneumatic waste material conveying system and onwards into the channel section between the feed-in container and the material conveying pipe , from where the material is conveyed along with the transporting air via the material conveying pipe to the delivery end of the pneumatic waste material conveying system, where the material is separated from the transporting air, wherein the channel section (20(II), 20(III), 20(IV)...(22(II), (22(III), 22(IV)) of at least one second input point is connected to the channel section (20(I), 21(I), 22(I)) of one first input point between the input point and an impeding means , characterized in that in the method at least a part of the material (w, w1, w2, w3, w4) fed in is acted upon by the combined effect of suction generated by a partial-vacuum generator of the pneumatic waste material conveying system and replacement air in the channel section (20(I), 21(I), 22(I)...20(IV), 21(IV), 22(IV)) to achieve compression against an impediment in at least a part of the material (w, w1, w2, w3, w4) being conveyed to decrease the volume of the waste material in the channel section, by means of the impediment , arranged between the conveying pipe and the material (w, w1, w2, w3, w4) to be handled, before transportation of the material to the delivery end of the pneumatic waste material conveying system.
A system for performing a capsulotomy, comprising: an elastic ring for cutting tissue, the elastic ring comprising a conductive surface on a bottom of the elastic ring ; an interface configured to couple to an air port of a phacomachine ; a converter configured to: detect a pulse of air from the phacomachine via the interface ; and in response to detecting the pulse of air, produce an electrical signal; and a control console configured to: in response to receiving the electrical signal, drive a series of electrical pulses through the conductive surface of the elastic ring , causing the elastic ring to perform a tissue cutting operation. an elastic ring for cutting tissue, the elastic ring comprising a conductive surface on a bottom of the elastic ring ; an interface configured to couple to an air port of a phacomachine ; a converter configured to: detect a pulse of air from the phacomachine via the interface ; and in response to detecting the pulse of air, produce an electrical signal; and detect a pulse of air from the phacomachine via the interface ; and in response to detecting the pulse of air, produce an electrical signal; and a control console configured to: in response to receiving the electrical signal, drive a series of electrical pulses through the conductive surface of the elastic ring , causing the elastic ring to perform a tissue cutting operation.
A gram-positive bacterium comprising a polycistronic expression unit, said polycistronic expression unit comprising an endogenous gene and one or more exogenous genes, wherein said endogenous gene and said one or more exogenous genes are transcriptionally controlled by a promoter endogenous to the gram-positive bacterium, wherein said promoter is (i) a ribosomal gene promoter selected from the group consisting of: (a) an rpmD promoter, (b) an rpsD promoter, (c) an rpsL promoter, (d) an rpsG promoter, (e) an rplR promoter, (f) an rpsE promoter, (g) an rpsK promoter, (h) an rplJ promoter, (i) an rplL promoter, (j) an rpsB promoter, (k) an rplD promoter, (l) an rplW promoter, (m) an rplB promoter, (n) an rplO promoter, (o) an rplK promoter, (p) an rpsH promoter, (q) an rpsM promoter, (r) an rpsS promoter, (s) an rplU promoter, (t) an rplV promoter, (u) an rplP promoter (v) an rplN promoter, (w) an rpsJ promoter, (x) an rplX promoter, (y) an rplE promoter, (z) an rplF promoter, and (aa) an rplM promoter; (ii) a glycolysis gene promoter promoter selected from the group consisting of: (a) an fbaA promoter, and (b) a pgk promoter; or (iii) a dpsA promoter of said gram-positive bacterium. (i) a ribosomal gene promoter selected from the group consisting of: (a) an rpmD promoter, (b) an rpsD promoter, (c) an rpsL promoter, (d) an rpsG promoter, (e) an rplR promoter, (f) an rpsE promoter, (g) an rpsK promoter, (h) an rplJ promoter, (i) an rplL promoter, (j) an rpsB promoter, (k) an rplD promoter, (l) an rplW promoter, (m) an rplB promoter, (n) an rplO promoter, (o) an rplK promoter, (p) an rpsH promoter, (q) an rpsM promoter, (r) an rpsS promoter, (s) an rplU promoter, (t) an rplV promoter, (u) an rplP promoter (v) an rplN promoter, (w) an rpsJ promoter, (x) an rplX promoter, (y) an rplE promoter, (z) an rplF promoter, and (aa) an rplM promoter; (a) an rpmD promoter, (b) an rpsD promoter, (c) an rpsL promoter, (d) an rpsG promoter, (e) an rplR promoter, (f) an rpsE promoter, (g) an rpsK promoter, (h) an rplJ promoter, (i) an rplL promoter, (j) an rpsB promoter, (k) an rplD promoter, (l) an rplW promoter, (m) an rplB promoter, (n) an rplO promoter, (o) an rplK promoter, (p) an rpsH promoter, (q) an rpsM promoter, (r) an rpsS promoter, (s) an rplU promoter, (t) an rplV promoter, (u) an rplP promoter (v) an rplN promoter, (w) an rpsJ promoter, (x) an rplX promoter, (y) an rplE promoter, (z) an rplF promoter, and (aa) an rplM promoter; (ii) a glycolysis gene promoter promoter selected from the group consisting of: (a) an fbaA promoter, and (b) a pgk promoter; or (a) an fbaA promoter, and (b) a pgk promoter; or (iii) a dpsA promoter
A system for mass spectrometer analysis comprising: a first quadrupole mass filter ; an ion guide configured to operate as a collision cell comprising a multipole rod set to receive ions from the first quadrupole mass filter and a lens electrode positioned at one end of the multipole rod set, the multipole rod set adapted to receive a radial radio frequency (RF) trapping voltage and a radial dipole direct current (DC) voltage, an electron based dissociation (ExD) device adapted to perform electron capture dissociation or electron transfer dissociation, the ExD device being positioned so that an entrance of the ExD device is disposed on the other side of the lens electrode opposite the multipole rod set, a mass analyzer positioned at an exit of the ExD device for receiving ions from the ExD device, characterized in that the system further comprises a processor in communication with the multipole rods set and the lens electrode that simultaneously applies a radial dipole DC voltage to the multipole rod set and an axial trapping AC voltage to the lens electrode or simultaneously applies a radial RF trapping voltage amplitude to the multipole rode set and an axial trapping AC voltage to the lens electrode in order to extract a bandpass mass range of ions trapping in the multipole rod set and in that the lens electrode is configured to extract ions trapped by the multipole rod set and adapted to receive an axial trapping alternating current (AC) voltage and a DC voltage. a first quadrupole mass filter ; an ion guide configured to operate as a collision cell comprising a multipole rod set to receive ions from the first quadrupole mass filter and a lens electrode positioned at one end of the multipole rod set, the multipole rod set adapted to receive a radial radio frequency (RF) trapping voltage and a radial dipole direct current (DC) voltage, an electron based dissociation (ExD) device adapted to perform electron capture dissociation or electron transfer dissociation, the ExD device being positioned so that an entrance of the ExD device is disposed on the other side of the lens electrode opposite the multipole rod set, a mass analyzer positioned at an exit of the ExD device for receiving ions from the ExD device, and in that the lens electrode is configured to extract ions trapped by the multipole rod set and adapted to receive an axial trapping alternating current (AC) voltage and a DC voltage.
A method for manufacturing a carbonaceous luminescent material, comprising the step of mixing together and heating a polycarboxylic acid-containing starting material, an amino group-containing compound, an acid catalyst and a solvent, wherein the acid catalyst is à heterogeneous acid catalyst which is a solid acid catalyst selected from cationic ion-exchange resins, cationic ionic-exchange membranes, and polyphosphoric acid.
A metal substrate having carbon nanotubes disposed on two opposing sides thereof, wherein the metal substrate includes one or more cavities and is comprised of iron, nickel, aluminum, cobalt, copper, chromium, gold and combinations thereof, characterized in that the metal substrate has a root mean square roughness of less than 250 μm.
An isolated antibody that binds to human PD1, wherein the antibody i) comprises a VH sequence of SEQ ID NO:57 and a VL sequence of SEQ ID NO:58, or ii) comprises a VH sequence of SEQ ID NO:57 and a VL sequence of SEQ ID NO:59, or iii) comprises a VH sequence of SEQ ID NO:57 and a VL sequence of SEQ ID NO:60, or iv) comprises a VH sequence of SEQ ID NO:57 and a VL sequence of SEQ ID NO:61. i) comprises a VH sequence of SEQ ID NO:57 and a VL sequence of SEQ ID NO:58, or ii) comprises a VH sequence of SEQ ID NO:57 and a VL sequence of SEQ ID NO:59, or iii) comprises a VH sequence of SEQ ID NO:57 and a VL sequence of SEQ ID NO:60, or iv) comprises a VH sequence of SEQ ID NO:57 and a VL sequence of SEQ ID NO:61.
Sensor element for temperature measurement, having - a ceramic carrier , - at least one NTC film , wherein the carrier is printed with the NTC film , wherein the NTC film covers at least part of a surface of the carrier , wherein the NTC film has a recess , and wherein the recess is provided to adjust the resistance of the NTC film , wherein the sensor element is configured for wireless contacting, wherein the sensor element is configured to be adhesively bonded, soldered or sintered to a conductor track, and wherein the sensor element is an NTC thick-film sensor. - a ceramic carrier , - at least one NTC film , wherein the carrier is printed with the NTC film , wherein the NTC film covers at least part of a surface of the carrier , wherein the NTC film has a recess , and wherein the recess is provided to adjust the resistance of the NTC film , wherein the sensor element is configured for wireless contacting, wherein the sensor element is configured to be adhesively bonded, soldered or sintered to a conductor track, and wherein the sensor element is an NTC thick-film sensor.
A system configured for managing an environmental control system in an aircraft, the system comprising: a power source ; a plurality of power access points and at least one environmental control system both connected to said power source , wherein the environmental control system is configured to control temperature; a master control unit configured for: comparing a load on said environmental control system to an environmental control system threshold ; comparing input from an environmental monitor to an environmental threshold ; comparing a total power draw of the power access points to a power threshold ; and creating a disable signal if at least one of the load on the environmental control system , the input from the environmental monitor and the total power draw of the power access points exceeds the respectively associated threshold ; characterized in that the system further comprises a sub-system effective to disable ones of said plurality of power access points not in use in response to said disable signal. a power source ; a plurality of power access points and at least one environmental control system both connected to said power source , wherein the environmental control system is configured to control temperature; a master control unit configured for: comparing a load on said environmental control system to an environmental control system threshold ; comparing input from an environmental monitor to an environmental threshold ; comparing a total power draw of the power access points to a power threshold ; and creating a disable signal if at least one of the load on the environmental control system , the input from the environmental monitor and the total power draw of the power access points exceeds the respectively associated threshold ; characterized in that the system further comprises a sub-system effective to disable ones of said plurality of power access points not in use in response to said disable signal. comparing a load on said environmental control system to an environmental control system threshold ; comparing input from an environmental monitor to an environmental threshold ; comparing a total power draw of the power access points to a power threshold ; and creating a disable signal if at least one of the load on the environmental control system , the input from the environmental monitor and the total power draw of the power access points exceeds the respectively associated threshold ; characterized in that the system further comprises a sub-system effective to disable ones of said plurality of power access points not in use in response to said disable signal.
Paper machine clothing comprising a substrate with an upper side, a lower side, two lateral edges and an usable region (UR) between the two lateral edges, wherein the usable region (UR) comprises a plurality of through-channels each extending along a central axis (CA) through the substrate and connecting the upper side with the lower side, wherein the through-channels are non-cylindrical with a cross sectional area becoming smaller when going in a thickness direction (TD) of the substrate from the upper side to a middle region (MR) of the substrate between the upper side and the lower side, and wherein an upper rim of at least one of the plurality of through-channels directly contacts an upper rim of at least one other neighboring through-channel of the plurality of through-channels , characterized in that the upper rims of both neighboring through-channels have at least one common local maximum , wherein a sectional plane being parallel to the thickness direction (TD) of the substrate , comprising the at least one common local maximum and comprising or intersecting the central axis (CA) of at least one of the two neighboring through-channels defines an intersecting line with a sidewall of the at least one of the two neighboring through-channels , and wherein the intersecting line comprises a first portion that is convexly shaped, a second portion that is concavely shaped and a third portion that is again convexly shaped when going in the thickness direction (TD) of the substrate from the at least one common local maximum toward the middle region (MR) of the substrate . and wherein an upper rim of at least one of the plurality of through-channels directly contacts an upper rim of at least one other neighboring through-channel of the plurality of through-channels , characterized in that the upper rims of both neighboring through-channels have at least one common local maximum , wherein a sectional plane being parallel to the thickness direction (TD) of the substrate , comprising the at least one common local maximum and comprising or intersecting the central axis (CA) of at least one of the two neighboring through-channels defines an intersecting line with a sidewall of the at least one of the two neighboring through-channels , and wherein the intersecting line comprises a first portion that is convexly shaped, a second portion that is concavely shaped and a third portion that is again convexly shaped when going in the thickness direction (TD) of the substrate from the at least one common local maximum toward the middle region (MR) of the substrate .
A sitting position adjustment system for adjusting a sitting position of a user of a seat, said sitting position adjustment system comprising - a pressure distribution determination system for determining a pressure distribution of said user in said seat, characterized in that said sitting position adjustment system further comprises - a micro-adjustment system for making micro-adjustments of a sitting surface of said seat based on said determined pressure distribution, said micro-adjustment system being adapted to operate in the millimetre range and/or the submillimetre range. - a pressure distribution determination system for determining a pressure distribution of said user in said seat, characterized in that said sitting position adjustment system further comprises - a micro-adjustment system for making micro-adjustments of a sitting surface of said seat based on said determined pressure distribution, said micro-adjustment system being adapted to operate in the millimetre range and/or the submillimetre range.
An electronic device for a wireless communication system, the electronic device comprising: a receiver configured to receive, from a transmitting device, a packet signal comprising a legacy Physical Layer (PHY) portion and a data portion including duration information, wherein the legacy PHY portion includes first length information and first rate information, the first length information has an upper limit value and is calculated based on the first rate information, and the packet signal requests the electronic device to transmit a response packet and includes address information of the electronic device, the address information causing to avoid transmitting another response packet from another electronic device of the wireless communication system; processing circuitry configured to decode the legacy PHY portion and the data portion, and set a second length and a second rate in a second legacy PHY portion in order that the value of (second length)/(second rate) equals to the duration until a next packet signal is transmitted from the transmitting device; and a transmitter configured to transmit the response packet including the second legacy PHY portion, to the transmitting device, at a predetermined timing based on the address information of the transmitting device. a receiver configured to receive, from a transmitting device, a packet signal comprising a legacy Physical Layer (PHY) portion and a data portion including duration information, wherein the legacy PHY portion includes first length information and first rate information, the first length information has an upper limit value and is calculated based on the first rate information, and the packet signal requests the electronic device to transmit a response packet and includes address information of the electronic device, the address information causing to avoid transmitting another response packet from another electronic device of the wireless communication system; processing circuitry configured to decode the legacy PHY portion and the data portion, and set a second length and a second rate in a second legacy PHY portion in order that the value of (second length)/(second rate) equals to the duration until a next packet signal is transmitted from the transmitting device; and a transmitter configured to transmit the response packet including the second legacy PHY portion, to the transmitting device, at a predetermined timing based on the address information of the transmitting device.