mhurhangee/patent-ind-claim-en huggingface dataset:
A card manufacturing system , comprising: a locating device configured to identify a position of one or more information carrying cards formed integrally with a laminate sheet , wherein the locating device is configured to generate information corresponding to the position of the one or more information carrying cards and comprises a computer configured to generate a digital mapping file that comprises the information corresponding to the position of the one or more information carrying cards; and a separation device comprising at least one singulation mechanism configured to separate each of the one or more information carrying cards from the laminate sheet , wherein the singulation mechanism separates the one or more information cards based on the information corresponding to the position of the one or more information carrying cards. a locating device configured to identify a position of one or more information carrying cards formed integrally with a laminate sheet , wherein the locating device is configured to generate information corresponding to the position of the one or more information carrying cards and comprises a computer configured to generate a digital mapping file that comprises the information corresponding to the position of the one or more information carrying cards; and a separation device comprising at least one singulation mechanism configured to separate each of the one or more information carrying cards from the laminate sheet , wherein the singulation mechanism separates the one or more information cards based on the information corresponding to the position of the one or more information carrying cards.
A bispecific antibody comprising a first binding domain, designated B1, which is capable of binding specifically to CD137; and a second binding domain, designated B2, which is capable of specifically binding to a tumour cell-associated antigen, wherein the tumour cell-associated antigen is 5T4; wherein binding domain B1 comprises CDRL1 corresponding to SEQ ID NO: 54, CDRL2 corresponding to SEQ ID NO: 55, and CDRL3 corresponding to SEQ ID NO: 83, and wherein binding domain B1 comprises CDRH1 corresponding to SEQ ID NO: 62 or a variant of CDRH1 having only one amino acid mutation relative to SEQ ID NO: 62, CDRH2 corresponding to SEQ ID NO: 69, and CDRH3 corresponding to SEQ ID NO: 76; and wherein binding domain B2 comprises CDRL1 corresponding to SEQ ID NO: 54 or a variant of CDRL1 having only one amino acid mutation relative to SEQ ID NO: 54, CDRL2 corresponding to SEQ ID NO: 55, and CDRL3 corresponding to SEQ ID NO: 58, and wherein binding domain B2 comprises CDRH1 corresponding to SEQ ID NO: 46, CDRH2 corresponding to SEQ ID NO: 48, and CDRH3 corresponding to SEQ ID NO: 52. wherein binding domain B1 comprises CDRL1 corresponding to SEQ ID NO: 54, CDRL2 corresponding to SEQ ID NO: 55, and CDRL3 corresponding to SEQ ID NO: 83, and wherein binding domain B1 comprises CDRH1 corresponding to SEQ ID NO: 62 or a variant of CDRH1 having only one amino acid mutation relative to SEQ ID NO: 62, CDRH2 corresponding to SEQ ID NO: 69, and CDRH3 corresponding to SEQ ID NO: 76; and wherein binding domain B2 comprises CDRL1 corresponding to SEQ ID NO: 54 or a variant of CDRL1 having only one amino acid mutation relative to SEQ ID NO: 54, CDRL2 corresponding to SEQ ID NO: 55, and CDRL3 corresponding to SEQ ID NO: 58, and wherein binding domain B2 comprises CDRH1 corresponding to SEQ ID NO: 46, CDRH2 corresponding to SEQ ID NO: 48, and CDRH3 corresponding to SEQ ID NO: 52.
Arrangement comprising an implant which is made from a plastic or comprises a plastic, comprising an anchoring segment and an implant stub , wherein the anchoring segment comprises a core (3a, 3'a) and wherein anchoring claws protrude from the core (3a, 3'a) in a radial and/or axial direction, which implant is suitable for implantation into a jaw bone , and a mounting part which is suitable for mounting onto a part of the implant that is protruding out of the jaw bone , wherein the implant comprises an implant stub which is made from a plastic or comprises a plastic, and wherein the mounting part is fixed or fixable on the implant stub , characterized in that the core (3'a) is elliptic or oval in cross section, in that the implant stub is elliptic or oval in cross section, in that the mounting part comprises cams which engage in grooves of the implant stub in an interlocking manner, and in that the mounting part is made from a material or comprises a material that is more rigid than the plastic from which the implant stub is made or which the implant stub comprises.
Use of a SiAlON phosphor as a scintillator for measuring a charged particle radiation, wherein the SiAION phosphor is a phosphor in which the main component is an α-type SiAlON represented by the general formula: M y Si 12-(m+n) Al (m+n) O n N 16-n , where M includes at least one element chosen from among Li, Ca, Mg, Y and lanthanides, with the exception of La and Ce, and at least one luminescence center chosen from among Eu, Ce, Tb, Yb, Sm, Dy, Er and Pr, where y = m/p, in which p is the valence of M, and where 0.3 < m < 4.5 and 0 ≤ n < 2.5, and the charged particle radiation is at least one selected from the group consisting of an α-ray, a proton, and a heavy-particle beam. wherein the SiAION phosphor is a phosphor in which the main component is an α-type SiAlON represented by the general formula: M y Si 12-(m+n) Al (m+n) O n N 16-n , where M includes at least one element chosen from among Li, Ca, Mg, Y and lanthanides, with the exception of La and Ce, and at least one luminescence center chosen from among Eu, Ce, Tb, Yb, Sm, Dy, Er and Pr, where y = m/p, in which p is the valence of M, and where 0.3 < m < 4.5 and 0 ≤ n < 2.5, and the charged particle radiation is at least one selected from the group consisting of an α-ray, a proton, and a heavy-particle beam.
A method of preparing an ion-conducting composite electrolyte comprising ion-conducting ceramic electrolyte particles and a solid polymeric matrix , wherein: the polymeric matrix defines a pair of opposite major faces defining a matrix body there between; the particles are sized and positioned in the polymeric matrix such that a majority of the particles breach both of the opposite major faces of the matrix body; the particles comprise an anisotropic crystalline structure; a majority of the face-breaching particles comprise internal inclusions and grain boundaries and are oriented in the polymeric matrix to comprise a breaching cross section defining a cross-body, linear ion-conducting path that is unimpeded by the secondary phase inclusions and the grain boundaries of the face-breaching particle; and the method comprises preparing the particles for inclusion in the polymeric matrix by subjecting ceramic precursor crystals to thermally-induced microcracking and separating the microcracked precursor crystals into individual ion-conducting ceramic electrolyte particles . the polymeric matrix defines a pair of opposite major faces defining a matrix body there between; the particles are sized and positioned in the polymeric matrix such that a majority of the particles breach both of the opposite major faces of the matrix body; the particles comprise an anisotropic crystalline structure; a majority of the face-breaching particles comprise internal inclusions and grain boundaries and are oriented in the polymeric matrix to comprise a breaching cross section defining a cross-body, linear ion-conducting path that is unimpeded by the secondary phase inclusions and the grain boundaries of the face-breaching particle; and the method comprises preparing the particles for inclusion in the polymeric matrix by subjecting ceramic precursor crystals to thermally-induced microcracking and separating the microcracked precursor crystals into individual ion-conducting ceramic electrolyte particles .
System having a substantially metal body , which has a recess , and having a sensor apparatus , which is introduced into the recess , wherein the sensor apparatus has a sensor unit , an antenna unit and an earth potential , wherein the antenna unit is electrically connected to the earth potential , characterized in that the earth potential is electrically connected to the metal body .
Device for washing vehicles with a washing roller rotating about its axis of rotation and movable in the direction of its axis of rotation, a drive device which is coupled to a carrier shaft of the washing roller and via which the washing roller can be actuated in rotation, wherein the washing roller is in contact with a vehicle surface to be cleaned with a contact force during the washing process, and a pneumatic or hydraulic actuating device which is coupled to the carrier shaft of the washing roller and via which the washing roller can be moved in the direction of its axis of rotation, wherein the frequency and/or the stroke of the movement in the direction of the axis of rotation is adjustable as a function of the contact pressure of the washing roller . a washing roller rotating about its axis of rotation and movable in the direction of its axis of rotation, a drive device which is coupled to a carrier shaft of the washing roller and via which the washing roller can be actuated in rotation, wherein the washing roller is in contact with a vehicle surface to be cleaned with a contact force during the washing process, and a pneumatic or hydraulic actuating device which is coupled to the carrier shaft of the washing roller and via which the washing roller can be moved in the direction of its axis of rotation, wherein the frequency and/or the stroke of the movement in the direction of the axis of rotation is adjustable as a function of the contact pressure of the washing roller .
A device for measuring a fuel flow, comprising: - a measuring module for measuring the fuel flow guided through the measuring module ; - a conditioning module arranged downstream of the measuring module for conditioning the fuel; and - a verification module provided downstream of the measuring module for checking the measuring precision of the measuring module ; wherein - the verification module is installed firmly and permanently as an integral part of the device and is connected such with the measuring module that the fuel can be guided from the measuring module downstream to the verification module ; - a main pipe for guiding the fuel from the measuring module to the conditioning module is provided between the measuring module and the conditioning module ; - a secondary pipe branching off to the verification module from the main pipe at a branching point ; - the verification module has a dosing unit formed as a fuel injector unit for extracting an exactly defined quantity of fuel serving as a reference fuel quantity, and wherein - the measurement fuel quantity determined by the measuring module and the reference fuel quantity determined by the dosing unit are comparable, in order to determine a measuring precision of the measuring module . - a measuring module for measuring the fuel flow guided through the measuring module ; - a conditioning module arranged downstream of the measuring module for conditioning the fuel; and - a verification module provided downstream of the measuring module for checking the measuring precision of the measuring module ; wherein - the verification module is installed firmly and permanently as an integral part of the device and is connected such with the measuring module that the fuel can be guided from the measuring module downstream to the verification module ; - a main pipe for guiding the fuel from the measuring module to the conditioning module is provided between the measuring module and the conditioning module ; - a secondary pipe branching off to the verification module from the main pipe at a branching point ; - the verification module has a dosing unit formed as a fuel injector unit for extracting an exactly defined quantity of fuel serving as a reference fuel quantity, and wherein - the measurement fuel quantity determined by the measuring module and the reference fuel quantity determined by the dosing unit are comparable, in order to determine a measuring precision of the measuring module .
An electron sensor comprising: a p-type electron-sensitive layer configured to generate multiple electrons in response to each said incident electron that enters said electron-sensitive layer through a first surface (127-F) of said electron-sensitive layer ; an n-type buried channel layer disposed on a second surface (127-B) of the electron-sensitive layer and configured to collect at least some of the multiple electrons generated by the electron-sensitive layer ; an n+ floating diffusion disposed in the buried channel layer and configured to accumulate at least some of the electrons collected by the buried channel layer such that a voltage of the floating diffusion changes in proportion to a number of said electrons accumulated on the floating diffusion; and an amplifier configured to generate an output signal in accordance with the voltage of the floating diffusion, wherein the electron-sensitive layer , the buried channel layer , the floating diffusion and the amplifier are disposed on a single integral semiconductor structure ; wherein the electron sensor further comprises a pure boron layer disposed on the first surface (127-F) of said electron-sensitive layer such that said incident electron passes through the pure boron layer before entering the electron-sensitive layer . a p-type electron-sensitive layer configured to generate multiple electrons in response to each said incident electron that enters said electron-sensitive layer through a first surface (127-F) of said electron-sensitive layer ; an n-type buried channel layer disposed on a second surface (127-B) of the electron-sensitive layer and configured to collect at least some of the multiple electrons generated by the electron-sensitive layer ; an n+ floating diffusion disposed in the buried channel layer and configured to accumulate at least some of the electrons collected by the buried channel layer such that a voltage of the floating diffusion changes in proportion to a number of said electrons accumulated on the floating diffusion; and an amplifier configured to generate an output signal in accordance with the voltage of the floating diffusion, wherein the electron-sensitive layer , the buried channel layer , the floating diffusion and the amplifier are disposed on a single integral semiconductor structure ; wherein the electron sensor further comprises a pure boron layer disposed on the first surface (127-F) of said electron-sensitive layer such that said incident electron passes through the pure boron layer before entering the electron-sensitive layer .
A base plate structure facilitating heat discharge of a heating coil, comprising: a circular base plate , wherein at least one or more hall effect sensors are disposed in a center sensor portion ; one or more unit mounting groove portions , each of which is defined by a closed partition wall protruding from a lower side of the base plate , wherein the unit mounting groove portions are repeatedly disposed as an annulus with respect to the center sensor portion and a ferrite core is coupled to the unit mounting groove portions ; one or more protrusion portions protruding from an upper side of the base plate such that the heating coil wound in the upper side of the base plate is spaced apart from the upper side of the base plate ; and one or more heat discharge openings provided in a bottom side of the unit mounting groove portions . a circular base plate , wherein at least one or more hall effect sensors are disposed in a center sensor portion ; one or more unit mounting groove portions , each of which is defined by a closed partition wall protruding from a lower side of the base plate , wherein the unit mounting groove portions are repeatedly disposed as an annulus with respect to the center sensor portion and a ferrite core is coupled to the unit mounting groove portions ; one or more protrusion portions protruding from an upper side of the base plate such that the heating coil wound in the upper side of the base plate is spaced apart from the upper side of the base plate ; and one or more heat discharge openings provided in a bottom side of the unit mounting groove portions .
A mechanical part comprising: a staff member ; a rotating member including a first hole in which the staff member is inserted, and a rib extending toward the staff member ; and an annular fastening member configured to affix the rotating member to the staff member , the fastening member disposed in contact with the rib with part of the fastening member deformed and protruding into the first hole , wherein the rotating member has a rim part including a plurality of teeth , and a flexible part and a second hole disposed between the rib and the rim part . a staff member ; a rotating member including a first hole in which the staff member is inserted, and a rib extending toward the staff member ; and an annular fastening member configured to affix the rotating member to the staff member , the fastening member disposed in contact with the rib with part of the fastening member deformed and protruding into the first hole , wherein the rotating member has a rim part including a plurality of teeth , and a flexible part and a second hole disposed between the rib and the rim part .
Locking device for actuating a locking mechanism of a vehicle, comprising a cylinder housing , in which a cylinder core is rotatably received, wherein a plurality of axially successively arranged, radially movable tumblers are arranged between the cylinder housing and the cylinder core , which can be sorted in a release position (I) by a matching key in the cylinder core in order to rotatably decouple the cylinder core from the cylinder housing , and which can be engaged to the cylinder housing in a locking position (II) after withdrawal of the matching key from the cylinder core in order to couple the cylinder core to the cylinder housing in a rotationally fixed manner, wherein at least one radially movable locking element is arranged between the cylinder housing and the cylinder core , which can be retracted into a security groove on at least one tumbler by a rotation of the cylinder core , wherein the security groove of the at least one tumbler is formed such that when the locking element is retracted in the security groove , a first clearance (S1) occurs between the locking element and the security groove , and wherein a respective locking groove for each tumbler or a common locking groove for all tumblers is provided on the cylinder housing , into which the tumbler or tumblers is/are retractable in order to engage the cylinder core to the cylinder housing when no matching key is inserted in the cylinder core , characterized in that the locking groove is designed in such a way that, when the tumbler is retracted into the locking groove , at least a second clearance (S2) is produced between the tumbler and the locking groove .
A flow guiding ring structure, comprising a ring body , the ring body comprising a closed cavity and a through hole , a minimum diameter position of the ring body being provided with an opening , the cavity communicating with the through hole via the opening , a fluid in the through hole is able to enter the cavity through the opening , the ring body has at least one curved plate for defining the cavity , wherein the ring body comprises a first curved plate , a second curved plate and a flat plate defining the cavity and the through hole ; the first curved plate is located inside the ring body , the second curved plate is located outside the ring body , and the first curved plate and the second curved plate are rounded off and sealed; an end of the first curved plate away from the second curved plate and the flat plate are rounded off and sealed; and an end of the second curved plate away from the first curved plate and the flat plate are rounded off and sealed, the opening being provided in the first curved plate , the first curved plate comprises a first segment and a second segment having different curvatures, the first segment being located between the flat plate and the second segment , and the opening being provided in the first segment , the opening is located on an air outflow side of the ring body , an arc of the second curved plate is oriented toward an outside of the flow guiding ring structure.
A nozzle for a fan assembly , the nozzle comprising: an air inlet for receiving an air flow, a first air outlet for emitting an air flow and a second air outlet for emitting an air flow; wherein the first and second air outlets comprise a pair of curved slots that are provided on a face of the nozzle ; wherein the first and second air outlets are diametrically opposed and oriented towards a convergent point; and wherein the nozzle further comprises an intermediate surface that spans an area between the first and second air outlets, and wherein the first and second air outlets are oriented to direct an airflow over at least a portion of the intermediate surface, and wherein the face of the nozzle comprises the intermediate surface, and wherein the first air outlet and the second air outlet are oriented towards a convergent point located on a central axis of the face of the nozzle , and further comprising a single internal air passageway extending between the air inlet and both the first and second air outlets, and characterised in that the nozzle for a fan assembly further comprises a valve for controlling an air flow from the air inlet to the air outlets. an air inlet for receiving an air flow, a first air outlet for emitting an air flow and a second air outlet for emitting an air flow; wherein the first and second air outlets comprise a pair of curved slots that are provided on a face of the nozzle ; wherein the first and second air outlets are diametrically opposed and oriented towards a convergent point; and wherein the nozzle further comprises an intermediate surface that spans an area between the first and second air outlets, and wherein the first and second air outlets are oriented to direct an airflow over at least a portion of the intermediate surface, and wherein the face of the nozzle comprises the intermediate surface, and wherein the first air outlet and the second air outlet are oriented towards a convergent point located on a central axis of the face of the nozzle , and further comprising a single internal air passageway extending between the air inlet and both the first and second air outlets, and characterised in that the nozzle for a fan assembly further comprises a valve for controlling an air flow from the air inlet to the air outlets.