mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing an oligomer array, comprising the steps of: (a) providing a substrate with a plurality of recesses; (b) placing a first particle with a first molecule within a recess stochastically so that initially it is not determined which first molecule is fixed at which location; (c) releasing the first molecule from the first particle; (d) binding the first molecule to a second molecule while forming an oligomer, wherein the second molecule is immobilized within the recess, wherein after step (c) or (d) a detection of the detectible marker is done depending on a position of the recess on the oligomer; (e) repeating steps (b) to (d) while elongating the oligomer; wherein at least a first particle and/or a first molecule comprises a detectable marker, wherein a plurality of first particles is used; and (f) generating a 3D deposition mask as step from the determination of the detectable marker in dependence of the position of the recess on the oligomer array, wherein the 3D deposition mask contains all the information with respect to the location and the structure of the oligomer. (a) providing a substrate with a plurality of recesses; (b) placing a first particle with a first molecule within a recess stochastically so that initially it is not determined which first molecule is fixed at which location; (c) releasing the first molecule from the first particle; (d) binding the first molecule to a second molecule while forming an oligomer, wherein the second molecule is immobilized within the recess, wherein after step (c) or (d) a detection of the detectible marker is done depending on a position of the recess on the oligomer; (e) repeating steps (b) to (d) while elongating the oligomer; wherein at least a first particle and/or a first molecule comprises a detectable marker, wherein a plurality of first particles is used; and (f) generating a 3D deposition mask as step from the determination of the detectable marker in dependence of the position of the recess on the oligomer array, wherein the 3D deposition mask contains all the information with respect to the location and the structure of the oligomer.
A storage device for carrying items, comprising: a container defining an interior for storage of items, the container including an exterior surface and an opening therethrough for accessing the interior; at least one facial feature structure that is visible from outside the storage device, the at least one facial feature structure including at least one movable facial feature element ; at least one actuator that is operatively connected to the at least one movable facial feature element for driving movement of the at least one movable facial feature element; a closure structure extending along the opening; a traveler being movably mounted to the closure structure for movement between a first traveler position and a second traveler position, wherein, movement of the traveler towards the first traveler position opens the closure structure so as to open the opening, and movement of the traveler towards the second traveler position closes the closure structure to close the opening; and a coupling arrangement operatively connecting the traveler to the actuator such that movement of the traveler from one of the first traveler position and the second position to the other of the first traveler position and the second position drives movement of the at least one actuator, which in turn drives movement of the at least one movable facial feature element. a container defining an interior for storage of items, the container including an exterior surface and an opening therethrough for accessing the interior; at least one facial feature structure that is visible from outside the storage device, the at least one facial feature structure including at least one movable facial feature element ; at least one actuator that is operatively connected to the at least one movable facial feature element for driving movement of the at least one movable facial feature element; a closure structure extending along the opening; a traveler being movably mounted to the closure structure for movement between a first traveler position and a second traveler position, wherein, movement of the traveler towards the first traveler position opens the closure structure so as to open the opening, and movement of the traveler towards the second traveler position closes the closure structure to close the opening; and a coupling arrangement operatively connecting the traveler to the actuator such that movement of the traveler from one of the first traveler position and the second position to the other of the first traveler position and the second position drives movement of the at least one actuator, which in turn drives movement of the at least one movable facial feature element.
A diamond single crystal produced by gas-phase synthesis, wherein the diamond single crystal includes two or more diamond monocrystalline layers having different absorption coefficients for light having a wavelength of 350 nm, one of the diamond monocrystalline layers having one main surface has an absorption coefficient of less than 25 cm -1 for light having a wavelength of 350 nm, and another of the diamond monocrystalline layers having the other main surface has an absorption coefficient of 25 cm -1 or more and 80 cm -1 or less for light having a wavelength of 350 nm, and any of the two or more diamond monocrystalline layers has an absorption coefficient of 80 cm -1 or less for light having a wavelength of 350 nm.
A supported catalyst for catalyzing a transesterification reaction between sucrose and carboxylate, comprising an active functional component and an inorganic carrier, wherein the active functional component is a compound shown in formula : wherein n is a natural number greater than or equal to 2; R is an atom linked to a surface of the inorganic carrier; and one or two of R 1 , R 2 , and R 3 is/are hydrocarbyl, and the rest each are independently any one selected from the group consisting of oxygen, hydroxyl, hydrocarbyloxy, and acetoxy.
A filling apparatus comprising: a storage tank for storing hydrogen fuel; a filling nozzle for filling a hydrogen gas from the storage tank through a fuel filling system to an in-vehicle hydrogen filling tank mounted on a vehicle; a rod-shaped member and a main body portion mounted on the filling nozzle; a sealing member arranged on the main body portion and in a radially outer direction of the rod-shaped member ; a guide member fixed to a radially inner portion of the main body portion and projecting in a radially inner direction on a portion separated from an end side of the rod-shaped member , wherein in a non-filling state of the filling apparatus an enlarged portion of the rod-shaped member is apart from the guide member and in a filling state the enlarged portion abuts the guide member to restrict an axial position of the rod-shape member such as to prevent movement of the sealing member ; and means for protecting an outer peripheral surface (R) of the rod-shaped member from slide on the guide member . a storage tank for storing hydrogen fuel; a filling nozzle for filling a hydrogen gas from the storage tank through a fuel filling system to an in-vehicle hydrogen filling tank mounted on a vehicle; a rod-shaped member and a main body portion mounted on the filling nozzle; a sealing member arranged on the main body portion and in a radially outer direction of the rod-shaped member ; a guide member fixed to a radially inner portion of the main body portion and projecting in a radially inner direction on a portion separated from an end side of the rod-shaped member , wherein in a non-filling state of the filling apparatus an enlarged portion of the rod-shaped member is apart from the guide member and in a filling state the enlarged portion abuts the guide member to restrict an axial position of the rod-shape member such as to prevent movement of the sealing member ; and means for protecting an outer peripheral surface (R) of the rod-shaped member from slide on the guide member .
An agricultural tire , comprising: a toroidal tire structure having a tread portion , a pair of bead portions , and opposite sidewall portions , and further having body plies , belt plies , or both body plies and belt plies ; wherein: the toroidal tire structure contains vulcanized rubber in the amount of about 90 percent or more by weight; the plies include high strength plies containing cords that are formed of yarns, including polyamide yarns, and that have individual cord tensile strengths within a range of 400 N to 700 N; and characterized in that the high strength plies include one or more radial body plies and one or more circumferential belt plies . the toroidal tire structure contains vulcanized rubber in the amount of about 90 percent or more by weight; the plies include high strength plies containing cords that are formed of yarns, including polyamide yarns, and that have individual cord tensile strengths within a range of 400 N to 700 N; and characterized in that the high strength plies include one or more radial body plies and one or more circumferential belt plies .
A rechargeable battery comprising first and second electrodes, wherein in its charged state, the battery comprises a redox active species in contact with the first electrode and a hydroquinone dissolved or suspended in aqueous solution in contact with the second electrode, wherein during discharge the redox active species is reduced and the hydroquinone is oxidized to a quinone, wherein the battery is a flow battery; wherein the redox active species in contact with the first electrode comprises chlorine, bromine, iodine, vanadium, chromium, cobalt, iron, manganese, cobalt, nickel, copper, or lead; and wherein the quinone is a water-soluble anthraquinone. wherein the battery is a flow battery; wherein the redox active species in contact with the first electrode comprises chlorine, bromine, iodine, vanadium, chromium, cobalt, iron, manganese, cobalt, nickel, copper, or lead; and wherein the quinone is a water-soluble anthraquinone.
A method for sequencing DNA, the method comprising: preparing fragments of sample DNA; subjecting the fragments of the sample DNA to PCR to produce two or more amplified fragments for each of the fragments of the sample DNA, and obtaining PCR products containing a plurality of amplified fragments, wherein the amount of input DNA in the PCR has been adjusted to 0.3 amol or more and 3.9 amol or less, per 1 Mbp in size of the sample DNA; sequencing the PCR products to generate one or more read sequences from the plurality of amplified fragments, and acquiring a plurality of read sequences for the plurality of amplified fragments; collecting, from the plurality of read sequences acquired, read sequences containing sequence information on the same region in the sample DNA into a group to generate one or more groups of read sequences; and building consensus of sequence information among read sequences included in each of the groups of read sequences. preparing fragments of sample DNA; subjecting the fragments of the sample DNA to PCR to produce two or more amplified fragments for each of the fragments of the sample DNA, and obtaining PCR products containing a plurality of amplified fragments, wherein the amount of input DNA in the PCR has been adjusted to 0.3 amol or more and 3.9 amol or less, per 1 Mbp in size of the sample DNA; sequencing the PCR products to generate one or more read sequences from the plurality of amplified fragments, and acquiring a plurality of read sequences for the plurality of amplified fragments; collecting, from the plurality of read sequences acquired, read sequences containing sequence information on the same region in the sample DNA into a group to generate one or more groups of read sequences; and building consensus of sequence information among read sequences included in each of the groups of read sequences.
A light-emitting device comprising: a light-emitting structure comprising a first conductivity type semiconductor layer , an active layer under the first conductivity type semiconductor layer , and a second conductivity type semiconductor layer under the active layer ; a reflective electrode under the light-emitting structure ; a first metal layer disposed under the reflective electrode and electrically connected to the second conductivity type semiconductor layer ; a second metal layer disposed under the reflective electrode and insulated from the first metal layer ; a first insulating layer between the first metal layer and the second metal layer ; an electrode electrically connected to the first metal layer and spaced apart from a lateral side of the light-emitting structure ; and a contact part electrically connecting the second metal layer to the first conductivity type semiconductor layer , wherein the first metal layer comprises a first region making contact with a bottom of the second conductivity type semiconductor layer , and a second region extending outward from the first region, wherein the contact part is disposed through the first insulating layer , wherein the electrode spaced apart from the lateral side of the light-emitting structure makes contact with a top surface of the first metal layer , wherein a first region of the contact part makes contact with a top surface of the first conductivity type semiconductor layer , and a second region of the contact part is disposed at lateral sides of the active layer and the second conductivity type semiconductor layer , the light-emitting device further comprising a second insulating layer disposed between the second region of the contact part and the active layer , and between the second region of the contact part and the second conductivity type semiconductor layer , wherein one end of the second insulating layer is disposed on the first conductivity type semiconductor layer , and the other end of the second insulating layer is disposed on the first insulating layer . a light-emitting structure comprising a first conductivity type semiconductor layer , an active layer under the first conductivity type semiconductor layer , and a second conductivity type semiconductor layer under the active layer ; a reflective electrode under the light-emitting structure ; a first metal layer disposed under the reflective electrode and electrically connected to the second conductivity type semiconductor layer ; a second metal layer disposed under the reflective electrode and insulated from the first metal layer ; a first insulating layer between the first metal layer and the second metal layer ; an electrode electrically connected to the first metal layer and spaced apart from a lateral side of the light-emitting structure ; and a contact part electrically connecting the second metal layer to the first conductivity type semiconductor layer ,
Preparation comprising at least one synthetic nanoparticle, in which the nanoparticle comprises: - a crystallized mineral central part mainly comprising an iron oxide, synthetized by a living organism, and - a peripheral coating either comprising less than 10% of non-denatured organic material originating from the living organism or not comprising proteins originating from the living organism, wherein said living organism is a magnetotactic bacterium. - a crystallized mineral central part mainly comprising an iron oxide, synthetized by a living organism, and - a peripheral coating either comprising less than 10% of non-denatured organic material originating from the living organism or not comprising proteins originating from the living organism,
Method for modifying surfaces of plastics, wherein at least one modifier substance is applied to at least part of the surface of a moulding tool in an injection moulding process, where the modifier substance contains at least one functional polymer having reactive and functional groups and metallic ions or metallic ions and metallic nanoparticles, and a molten plastic is then introduced into the moulding tool and the moulding is subsequently taken from the moulding tool, where metallic ions are then reduced to metallic nanoparticles.
A bone plate (10; 10'; 10"; 10′′′; 110; 210; 310) comprising: a proximal surface , a distal surface , and a first thickness defined from the distal surface to the proximal surface, a first screw hole (12; 12'; 12"), the first screw hole being a compression screw hole which has a lateral shoulder which forms an edge that slopes toward the proximal surface of the bone plate so as to cooperate with a screw placed through the first screw hole to apply a transverse motion to the plate as the screw is tightened against a bone, a second screw hole (12; 12'; 12"), a first through-hole (17; 17'; 17"; 170; 270; 370) extending from the proximal surface to the distal surface, a second through-hole (17; 17'; 17"; 170; 270; 370) extending from the proximal surface to the distal surface, and a recessed portion (16; 16'; 16"; 160; 260; 360) connecting the first through-hole to the second through-hole and configured to at least partially receive a bone staple (30; 30'; 30"), the recessed portion including a web which spans the portion of the bone plate distal to the recessed portion and which has a second thickness that is less than the first thickness. a proximal surface , a distal surface , and a first thickness defined from the distal surface to the proximal surface, a first screw hole (12; 12'; 12"), the first screw hole being a compression screw hole which has a lateral shoulder which forms an edge that slopes toward the proximal surface of the bone plate so as to cooperate with a screw placed through the first screw hole to apply a transverse motion to the plate as the screw is tightened against a bone, a second screw hole (12; 12'; 12"), a first through-hole (17; 17'; 17"; 170; 270; 370) extending from the proximal surface to the distal surface, a second through-hole (17; 17'; 17"; 170; 270; 370) extending from the proximal surface to the distal surface, and a recessed portion (16; 16'; 16"; 160; 260; 360) connecting the first through-hole to the second through-hole and configured to at least partially receive a bone staple (30; 30'; 30"), the recessed portion including a web which spans the portion of the bone plate distal to the recessed portion and which has a second thickness that is less than the first thickness.
A compound which is beta-guanidinopropionic acid for use in a method of treatment of metastatic colon cancer, wherein the method comprises suppression of metastatic colonization of said metastatic colon cancer.
A robotic system comprising: an end effector having a jaw and a moveable element which is a cutting blade, a user interface display ; a drive comprising a motor; a mechanism operatively coupling the drive to the moveable element ; a processor configured to: determine a displacement of the drive or the mechanism ; track a kinematic chain of the moveable element ; determine a position of the moveable element relative to the end effector using the tracking of the kinematic chain of the moveable element and the displacement of the drive or the mechanism , the position of the moveable element relative to the end effector being determined from among a pre-cut position, a cut-complete position, and any position between the pre-cut position and the cut-complete position; display, on the user interface display , a visual indicator of the position of the moveable element relative to the end effector when the moveable element is obscured by the end effector ; and said processor being characterized in that it is further configured to display, on the user interface display , a video image of an environment of the moveable element. an end effector having a jaw and a moveable element which is a cutting blade, a user interface display ; a drive comprising a motor; a mechanism operatively coupling the drive to the moveable element ; a processor configured to: determine a displacement of the drive or the mechanism ; track a kinematic chain of the moveable element ; determine a position of the moveable element relative to the end effector using the tracking of the kinematic chain of the moveable element and the displacement of the drive or the mechanism , the position of the moveable element relative to the end effector being determined from among a pre-cut position, a cut-complete position, and any position between the pre-cut position and the cut-complete position; display, on the user interface display , a visual indicator of the position of the moveable element relative to the end effector when the moveable element is obscured by the end effector ; and said processor being characterized in that it is further configured to display, on the user interface display , a video image of an environment of the determine a displacement of the drive or the mechanism ; track a kinematic chain of the moveable element ; determine a position of the moveable element relative to the end effector using the tracking of the kinematic chain of the moveable element and the displacement of the drive or the mechanism , the position of the moveable element relative to the end effector being determined from among a pre-cut position, a cut-complete position, and any position between the pre-cut position and the cut-complete position; display, on the user interface display , a visual indicator of the position of the moveable element relative to the end effector when the moveable element is obscured by the end effector ; and said processor being characterized in that it is further configured to display, on the user interface display , a video image of an environment of the moveable element.
Sensor device on a printed circuit board , by means of which stator windings of an electric machine are interconnected, wherein the sensor device is arranged in a manner fixed to the housing in the electric machine , wherein the printed circuit board is a carrier of the sensor device such that the sensor device does not require separate securing to a housing or to a stator of the electric machine , having a magnetic field sensor integrated into the sensor device , by means of which magnetic field sensor both the earth's magnetic field and a magnetic field that rotates with the rotor shaft of the electric machine are able to be detected for rotor position identification, characterized in that the sensor device has further sensors for detecting the longitudinal accelerations in all three spatial directions and the angular accelerations about all three spatial directions, wherein an evaluation unit is integrated into the sensor device , by means of which evaluation unit the sensor signals are evaluated, wherein the superposed magnetic fields from the sensor signal are analysed in the evaluation unit of the sensor device such that the magnetic fields are able to be assigned individually in order to determine the present rotor position of the rotor shaft .