mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of designing a DNA construct, comprising: at an electronic device with a display, receiving an input selecting a vector backbone, wherein the vector backbone comprises a plurality of functional parts; in response to receiving the input selecting the vector backbone, displaying a graphical representation of the selected vector backbone, wherein the graphical representation of the selected vector backbone includes a plasmid map and an optional sequence map; receiving an input selecting one or more functional parts of the plurality of functional parts of the vector backbone; after receiving the input selecting one or more functional parts on the vector backbone, receiving a drag-and-drop input comprising an indication of a functional part; in response to receiving the drag-and-drop input, updating the vector backbone based on the functional part indicated in the drag-and-drop input and the selected one or more functional parts of the plurality of functional parts of the vector backbone, wherein (i) in case the one or more functional parts includes an existing gene on the vector backbone, updating the vector backbone comprises replacing the existing gene with the functional part indicated in the drag-and-drop input, and/or (ii) in case the one or more functional parts includes one or more cloning sites on the vector backbone, updating the vector backbone comprises inserting the functional part indicated in the drag-and-drop input at a cloning site of the one or more cloning sites on the vector backbone; and displaying a graphical representation of the updated vector backbone. receiving an input selecting a vector backbone, wherein the vector backbone comprises a plurality of functional parts; in response to receiving the input selecting the vector backbone, displaying a graphical representation of the selected vector backbone, wherein the graphical representation of the selected vector backbone includes a plasmid map and an optional sequence map; receiving an input selecting one or more functional parts of the plurality of functional parts of the vector backbone; after receiving the input selecting one or more functional parts on the vector backbone, receiving a drag-and-drop input comprising an indication of a functional part; in response to receiving the drag-and-drop input, updating the vector backbone based on the functional part indicated in the drag-and-drop input and the selected one or more functional parts of the plurality of functional parts of the vector backbone, wherein (i) in case the one or more functional parts includes an existing gene on the vector backbone, updating the vector backbone comprises replacing the existing gene with the functional part indicated in the drag-and-drop input, and/or (ii) in case the one or more functional parts includes one or more cloning sites on the vector backbone, updating the vector backbone comprises inserting the functional part indicated in the drag-and-drop input at a cloning site of the one or more cloning sites on the vector backbone; and displaying a graphical representation of the updated vector backbone.
An implantable medical device comprising: a small molecule generator comprising an electrolyte reservoir and a set of electrodes , wherein: a first portion of the electrolyte reservoir is impermeable to a predetermined class of small molecules, and a second portion of the electrolyte reservoir is permeable to the small molecules, and the set of electrodes is disposed inside the electrolyte reservoir and is configured to facilitate electrolysis of the small molecules based on an electric power application to the set of electrodes and on presence of electrolyte inside the electrolyte reservoir ; a small molecule diffusor , wherein at least a portion of the small molecule diffusor is permeable to the small molecules; and a cannula impermeable to the small molecules and comprising a lumen, wherein the lumen connects the small molecule generator to the small molecule diffusor . a small molecule generator comprising an electrolyte reservoir and a set of electrodes , wherein: a first portion of the electrolyte reservoir is impermeable to a predetermined class of small molecules, and a second portion of the electrolyte reservoir is permeable to the small molecules, and the set of electrodes is disposed inside the electrolyte reservoir and is configured to facilitate electrolysis of the small molecules based on an electric power application to the set of electrodes and on presence of electrolyte inside the electrolyte reservoir ; a first portion of the electrolyte reservoir is impermeable to a predetermined class of small molecules, and a second portion of the electrolyte reservoir is permeable to the small molecules, and the set of electrodes is disposed inside the electrolyte reservoir and is configured to facilitate electrolysis of the small molecules based on an electric power application to the set of electrodes and on presence of electrolyte inside the electrolyte reservoir ; a small molecule diffusor , wherein at least a portion of the small molecule diffusor is permeable to the small molecules; and a cannula impermeable to the small molecules and comprising a lumen, wherein the lumen connects the small molecule generator to the small molecule diffusor .
Method for guiding a motor vehicle in a parking lot , wherein - a trajectory in the parking lot from a starting position to a target position is ascertained externally to the motor vehicle, wherein - at least a portion of the trajectory is transmitted to the motor vehicle via a communication network , wherein - the trajectory is ascertained on the basis of a property of the motor vehicle , - wherein the motor vehicle is remotely controlled when travelling the portion and, when autonomously travelling the portion, is monitored for a deviation by way of a monitoring system external to the motor vehicle, characterized in that the ascertained trajectory is divided into portions that are transmitted to the motor vehicle individually and successively via the communication network, such that the motor vehicle is able to travel the trajectory in portions, wherein a further portion that immediately follows the portion that has just been travelled is transmitted to the motor vehicle via the communication network only after the motor vehicle has travelled the portion, wherein the portions all each have the same length. - a trajectory in the parking lot from a starting position to a target position is ascertained externally to the motor vehicle, wherein - at least a portion of the trajectory is transmitted to the motor vehicle via a communication network , wherein - the trajectory is ascertained on the basis of a property of the motor vehicle , - wherein the motor vehicle is remotely controlled when travelling the portion and, when autonomously travelling the portion, is monitored for a deviation by way of a monitoring system external to the motor vehicle,
A plated silicon-based electronic cigarette atomizing chip, comprising the following components: a silicon substrate , wherein the silicon substrate is provided with an inlet end , and an outlet end and a glass cover , wherein air holes passing through the glass cover are provided; and the glass cover being fixedly connected to the silicon substrate by a bonding process, the plated silicon-based electronic cigarette being characterized in that the silicon substrate is further provided with an array of micro-pillars , the outer walls of said micro-pillars are plated side walls and in that said array of micro-pillars defines a plurality of micro-channels . a silicon substrate , wherein the silicon substrate is provided with an inlet end , and an outlet end and a glass cover , wherein air holes passing through the glass cover are provided; and the glass cover being fixedly connected to the silicon substrate by a bonding process, the plated silicon-based electronic cigarette being characterized in that the silicon substrate is further provided with an array of micro-pillars , the outer walls of said micro-pillars are plated side walls and in that said array of micro-pillars defines a plurality of micro-channels .
A polymer composition for manufacturing a foam, the polymer composition comprising a vinyl aromatic based copolymer and a processing aid, wherein the amount of the processing aid in the total weight of the polymer composition is equal to or more than 5 wt% and equal to or less than 75 wt%; and the polymer composition does not comprise ethylene-vinyl acetate copolymer, ethylene-butyl acrylate copolymer, ethylene-α-olefin copolymer, homopolymer and copolymer of polyethylene, homopolymer and copolymer of polypropylene, homopolymer and copolymer of polybutene and olefin-based ionic polymer; wherein the vinyl aromatic based copolymer is a hydrogenated copolymer, the weight average molecular weight of the vinyl aromatic based copolymer ranges from 50,000 to 550,000, the vinyl aromatic monomer content of the vinyl aromatic based copolymer is 20 wt% to 35 wt%, the vinyl structure content of the conjugated diene monomer in the vinyl aromatic based copolymer is 30 wt% to 45 wt%.
Method for producing an electric door opener , which comprises a locking element which is movable between a blocking position and a release position, an electromagnet for actuating the locking element and at least one connection terminal for connecting an electrical supply and/or control line to the door opener , wherein the following steps are carried out in order to form the at least one connection terminal : (i) separately providing a contact element and a clamping screw , wherein the contact element has a receptacle with an inside diameter and the clamping screw has a thread with a tightening direction of rotation and with an outside diameter, and wherein the outside diameter of the thread is greater than the inside diameter of the screw receptacle, and (ii) screwing the clamping screw into the screw receptacle in the tightening direction of rotation by means of an automatic screwing device in order to tap a mating thread into the screw receptacle, wherein (iii) the screwed-in clamping screw , after the mating thread has been tapped in step (ii), is unscrewed by a specified angle of rotation counter to the tightening direction of rotation by means of the automatic screwing device or a further automatic screwing device. (i) separately providing a contact element and a clamping screw , wherein the contact element has a receptacle with an inside diameter and the clamping screw has a thread with a tightening direction of rotation and with an outside diameter, and wherein the outside diameter of the thread is greater than the inside diameter of the screw receptacle, and (ii) screwing the clamping screw into the screw receptacle in the tightening direction of rotation by means of an automatic screwing device in order to tap a mating thread into the screw receptacle, wherein (iii) the screwed-in clamping screw , after the mating thread has been tapped in step (ii), is unscrewed by a specified angle of rotation counter to the tightening direction of rotation by means of the automatic screwing device or a further automatic screwing device.
A compound, wherein the compound is: wherein a position designated as having deuterium has a minimum isotopic enrichment factor of at least 100.
Process for the electrolytic polishing of a metallic substrate comprising the steps of (i) providing an electrolyte (EL) in an electrolytic cell comprising at least one electrode, (ii) disposing a metallic substrate as an anode in the electrolytic cell, (iii) applying a current at a voltage of 295 to 315 V from a power source between the at least one electrode and the metallic substrate, and (iv) immersing the metallic substrate in the electrolyte (EL), wherein the electrolyte (EL) comprises (a) at least one acid compound (A) selected from the group consisting of sulfuric acid, nitric acid, phosphoric acid, hydrochloric acid, formic acid, acetic acid, propionic acid, or mixtures thereof in an amount of 0.05 to 20 wt.-%, (b) at least one fluoride compound (F) that can serve as a source of fluoride ions in an amount of not more than 40 wt.-%, and (c) at least one complexing agent (CA) selected from the group consisting of methylglycinediacetic acid (MGDA), ethylenediaminetetraacetate (EDTA), aminopolycarboxylic acids (APC), diethylenetriaminepentaacetate (DTPA), N-(hydroxyethyl)-ethylenediaminetriacetic acid (HEDTA) or mixtures thereof in an amount of not more than 30 wt.-%, and wherein the metallic substrate is selected from the group consisting of Ti-6AI-4V, Inconel 718, Invar and combinations thereof, wherein Inconel 718 is a metal alloy consisting of 50.00-55.00 weight-% nickel plus cobalt, 17.00-21.00 weight-% chromium, 4.75-5.50 weight % niobium plus tantalum, 2.80-3.30 weight-% molybdenum, 0.65-1.15 weight-% titanium, 0.20-0.80 weight-% aluminum, max. 1 weight-% cobalt, max. 0.08 weight-% carbon, max. 0.35 weight-% manganese, max. 0.35 weight-% silicon, max. 0.015 weight-% phosphorus, max. 0.015 weight % sulfur, max. 0.006 weight-% boron and max. 0.30 weight-% copper, the balance being iron and unavoidable impurities, and wherein Invar is an alloy of iron and nickel. (i) providing an electrolyte (EL) in an electrolytic cell comprising at least one electrode, (ii) disposing a metallic substrate as an anode in the electrolytic cell, (iii) applying a current at a voltage of 295 to 315 V from a power source between the at least one electrode and the metallic substrate, and (iv) immersing the metallic substrate in the electrolyte (EL), (a) at least one acid compound (A) selected from the group consisting of sulfuric acid, nitric acid, phosphoric acid, hydrochloric acid, formic acid, acetic acid, propionic acid, or mixtures thereof in an amount of 0.05 to 20 wt.-%, (b) at least one fluoride compound (F) that can serve as a source of fluoride ions in an amount of not more than 40 wt.-%, and (c) at least one complexing agent (CA) selected from the group consisting of methylglycinediacetic acid (MGDA), ethylenediaminetetraacetate (EDTA), aminopolycarboxylic acids (APC), diethylenetriaminepentaacetate (DTPA), N-(hydroxyethyl)-ethylenediaminetriacetic acid (HEDTA) or mixtures thereof in an amount of not more than 30 wt.-%, and
Energy supply device for supplying electricity to a consumer of a vehicle , having: - an input for connection to an on-board power system of the vehicle in order to provide an input voltage (Ui) for a transfer arrangement , - an output for outputting a supply voltage (Ua) for operating the consumer , - the transfer arrangement for transferring electrical energy between the input and the output , characterized in that the transfer arrangement has a signalling adjustment system in order to impress a signal (S) on the supply voltage (Ua) depending on a deviation of the input voltage (Ui) that is critical to the supply of electricity, which signal is able to be evaluated on the consumer side on the basis of the supply voltage (Ua). - an input for connection to an on-board power system of the vehicle in order to provide an input voltage (Ui) for a transfer arrangement , - an output for outputting a supply voltage (Ua) for operating the consumer , - the transfer arrangement for transferring electrical energy between the input and the output , characterized in that
Drilling tool , in particular for drilling and/or chiselling devices for drilling into masonry, concrete, rock and the like, comprising - a drill head and - at least one first cutting body , - wherein the first cutting body is arranged at a free end of the drill head , - wherein a cutting tip of the first cutting body projects axially beyond the drill head on the drilling direction side in the direction of a longitudinal axis (L1) of the drilling tool , and - wherein the first cutting body protrudes radially from the drill head , - wherein the first cutting body comprises at least two lips having cutting edges , - wherein the lips extend radially outwards from the cutting tip , - wherein each lip of the first cutting body , as seen in the direction of the longitudinal axis (L1) of the drilling tool , has a thickness (D), transversely to its radial course, which increases from a minimum thickness (D1) to a maximum thickness (D2) with increasing radial distance from the longitudinal axis (L1), wherein an increase in material occurs in the direction of rotation (w) in front of the cutting edge or on both sides of the cutting edge , - and wherein side faces (14, 15; 17, 18) of the two lips of the first cutting body , which transition into rake faces , lie in parallel planes (E2, E3), characterized in that the cutting edges of the first cutting body , as seen in the direction of the longitudinal axis (L1) of the drilling tool , have, between the cutting tip and the lateral surfaces connecting the side faces (14, 15; 17, 18), at least one portion (B22, B23) having an arcuate profile, wherein the arcuate portion is in the form of a concavely shape cutting edge , wherein the arcuate portion (B22, B23) of the cutting edge , as seen in the direction of the longitudinal axis (L1) of the drilling tool , is concavely curved and is set back counter to the direction of rotation (w) of the drilling tool . - a drill head and - at least one first cutting body , - wherein the first cutting body is arranged at a free end of the drill head , - wherein a cutting tip of the first cutting body projects axially beyond the drill head on the drilling direction side in the direction of a longitudinal axis (L1) of the drilling tool , and - wherein the first cutting body protrudes radially from the drill head , - wherein the first cutting body comprises at least two lips having cutting edges , - wherein the lips extend radially outwards from the cutting tip , - wherein each lip of the first cutting body , as seen in the direction of the longitudinal axis (L1) of the drilling tool , has a thickness (D), transversely to its radial course, which increases from a minimum thickness (D1) to a maximum thickness (D2) with increasing radial distance from the longitudinal axis (L1), wherein an increase in material occurs in the direction of rotation (w) in front of the cutting edge or on both sides of the cutting edge , - and wherein side faces (14, 15; 17, 18) of the two lips of the first cutting body , which transition into rake faces , lie in parallel planes (E2, E3),
A fitting system for repairing plastic composite pipe systems, having - at least one first connector for producing a fluid connection to a first pipe , - at least one second connector for producing a fluid connection to a second pipe , and - at least one connecting element , which connects the first connector to the second connector , wherein the fitting system comprises a plurality of selectable supporting sleeves for connecting to plastic composite pipes with different inner and/or outer diameters in the manner of a modular system, - wherein the first connector is provided for producing a fluid connection to a first plastic composite pipe , - wherein the second connector is provided for producing a fluid connection to a second plastic composite pipe , - wherein the first connector has at least one supporting sleeve for connecting to the first plastic composite pipe , - wherein the second connector has at least one supporting sleeve for connecting to the second plastic composite pipe , characterised in that the selectable supporting sleeves are configured combinably in two parts comprising an inner supporting sleeve and an outer supporting sleeve , wherein by combining an inner supporting sleeve and an outer supporting sleeve , receptacles for receiving plastic composite pipes of different inner and/or outer diameters can be produced. - at least one first connector for producing a fluid connection to a first pipe , - at least one second connector for producing a fluid connection to a second pipe , and - at least one connecting element , which connects the first connector to the second connector , - wherein the first connector is provided for producing a fluid connection to a first plastic composite pipe , - wherein the second connector is provided for producing a fluid connection to a second plastic composite pipe , - wherein the first connector has at least one supporting sleeve for connecting to the first plastic composite pipe , - wherein the second connector has at least one supporting sleeve for connecting to the second plastic composite pipe ,
An optical fiber composed of tellurite glasses with a zero-material dispersion wavelength equal to or greater than 2 μm, the optical fiber comprising: a core region made of one of said tellurite glasses; and a first cladding section that is formed in such a manner as to enclose said core region, and a relative refractive-index difference between said core region and said first cladding section is equal to or greater than 2%; wherein said tellurite glasses have a composition of TeO 2 -Bi 2 O 3 -LO-M 2 O-N 2 O 3 -Q 2 O 5 , where L is at least one of Zn, Ba and Mg, M is at least one alkaline element selected from Li, Na, K, Rb and Cs, N is at least one of B, La, Ga, Al and Y, and Q is at least one of P and Nb, and components of said tellurite glass are 50 < TeO 2 < 90 mol % , 1 < Bi 2 O 3 < 30 mol % , and 1 < LO + M 2 O + N 2 O 3 + Q 2 O 5 < 50 mol % , characterized by a second cladding section that is formed in such a manner as to enclose said first cladding section, and has a refractive index approximately equal to the equivalent refractive index of said first cladding section, wherein the second cladding section is formed using one of said tellurite glasses having a composition different from that of the tellurite glass of the core region, and said first cladding section has a plurality of air holes in a circumferential direction of said core region and along an axial direction of said core region, thereby controlling the zero dispersion wavelength at the 1.55 μm band which is an optical telecommunication window. a core region made of one of said tellurite glasses; and a first cladding section that is formed in such a manner as to enclose said core region, and a relative refractive-index difference between said core region and said first cladding section is equal to or greater than 2%; wherein said tellurite glasses have a composition of TeO 2 -Bi 2 O 3 -LO-M 2 O-N 2 O 3 -Q 2 O 5 , where L is at least one of Zn, Ba and Mg, M is at least one alkaline element selected from Li, Na, K, Rb and Cs, N is at least one of B, La, Ga, Al and Y, and Q is at least one of P and Nb, and components of said tellurite glass are 50 < TeO 2 < 90 mol % , 1 < Bi 2 O 3 < 30 mol % , and 1 < LO + M 2 O + N 2 O 3 + Q 2 O 5 < 50 mol % , characterized by a second cladding section that is formed in such a manner as to enclose said first cladding section, and has a refractive index approximately equal to the equivalent refractive index of said first cladding section, wherein the second cladding section is formed using one of said tellurite glasses having a composition different from that of the tellurite glass of the core region, and said first cladding section has a plurality of air holes in a circumferential direction of said core region and along an axial direction of said core region, thereby controlling the zero dispersion wavelength at the 1.55 μm band which is an optical telecommunication window.