mhurhangee/patent-ind-claim-en huggingface dataset:
A home appliance, in particular a refrigerator or a freezer, comprising: a cabinet having a freezing compartment defined therein; an ice-maker disposed in the freezing compartment configured to make spherical ice; and an ice bin for storing ice, the ice bin being disposed below the ice-maker such that ice removed from the ice-maker falls down from the ice maker into the ice bin , characterised in that the home appliance further includes an ice tray disposed inside the ice bin for receiving the ice, wherein at least a portion of a bottom of the ice tray is spaced apart from a bottom of the ice bin , wherein a plurality of tray holes are defined to pass through the bottom of the ice tray , and wherein the ice tray includes: a front portion extending upwardly from a front end of the bottom ; a rear portion extending upwardly from a rear end of the bottom ; and lateral portions respectively extending upwardly from left and right ends of the bottom , and connecting the front portion and the rear portion , wherein a height of the front portion is larger than a height of the rear portion in order for an inner surface of the bottom of the ice tray to be inclined so that spherical ice may roll to a front end of the ice tray . a cabinet having a freezing compartment defined therein; an ice-maker disposed in the freezing compartment configured to make spherical ice; and an ice bin for storing ice, the ice bin being disposed below the ice-maker such that ice removed from the ice-maker falls down from the ice maker into the ice bin , characterised in that the home appliance further includes an ice tray disposed inside the ice bin for receiving the ice, wherein at least a portion of a bottom of the ice tray is spaced apart from a bottom of the ice bin , wherein a plurality of tray holes are defined to pass through the bottom of the ice tray , and wherein the ice tray includes: a front portion extending upwardly from a front end of the bottom ; a rear portion extending upwardly from a rear end of the bottom ; and lateral portions respectively extending upwardly from left and right ends of the bottom , and connecting the front portion and the rear portion , wherein a height of the front portion is larger than a height of the rear portion in order for an inner surface of the bottom of the ice tray to be inclined so that spherical ice may roll to a front end of the ice tray . a front portion extending upwardly from a front end of the bottom ; a rear portion extending upwardly from a rear end of the bottom ; and lateral portions respectively extending upwardly from left and right ends of the bottom , and connecting the front portion and the rear portion , wherein a height of the front portion is larger than a height of the rear portion in order for an inner surface of the bottom of the ice tray to be inclined so that spherical ice may roll to a front end of the ice tray .
An induction heating system that uses a three-phase AC power supply to run a single-phase induction heating apparatus including an induction heating coil , the induction heating system further comprising: an intermediate apparatus that intervenes between the single-phase induction heating apparatus and the three-phase AC power supply and includes an iron core for forming a closed magnetic circuit and a coil wound on the iron core and having an even number of turns, the intermediate apparatus being different from the induction heating apparatus and functioning as a current balancing apparatus preventing that a state where no current flows to one of the three phases of the three-phase AC power supply occurs, wherein: one of a winding start point and a winding end point of the induction heating coil is electrically connected to one phase of the three-phase AC power supply , and the other one is electrically connected to a midpoint of the coil of the intermediate apparatus ; and a winding start point and a winding end point of the coil of the intermediate apparatus are electrically connected to the remaining two phases of the three-phase AC power supply . one of a winding start point and a winding end point of the induction heating coil is electrically connected to one phase of the three-phase AC power supply , and the other one is electrically connected to a midpoint of the coil of the intermediate apparatus ; and a winding start point and a winding end point of the coil of the intermediate apparatus are electrically connected to the remaining two phases of the three-phase AC power supply .
An isolated protein comprising a moiety of 90-200 amino acid residues having at least 70% identity to SEQ ID NO: 7, wherein the amino acid residue corresponding to position 221 in SEQ ID NO: 1 is selected from the group consisting of Glu and Asp.
Component , comprising a first functional layer , within which are formed a multiplicity of first elements which function as photodiode or photo-field effect transistor and by means of which electromagnetic radiation from a first wavelength range that is incident on the surface of the first functional layer is detectable, wherein the first functional layer is deposited on a side of a substrate consisting of a semiconductor material and comprising a circuit structure composed of active component elements, wherein a second functional layer is deposited on the side of the substrate which is opposite the first functional layer , within which second functional layer are formed a multiplicity of second elements, by means of which electromagnetic radiation from a second wavelength range is emittable, wherein the first wavelength range is different from the second wavelength range, characterized in that a multiplicity of third elements formed as photodiode are formed within the substrate , by means of which third elements electromagnetic radiation from a third wavelength range that is incident on the surface of the first functional layer is detectable, wherein the third wavelength range is different from the first and second wavelength ranges and the first functional layer is transparent with respect to electromagnetic radiation from the third wavelength range, such that radiation images from the first wavelength range and the third wavelength range are capturable by means of the first elements and the third elements and can be reproduced separately or cumulatively as a radiation image in the second wavelength range by means of the second elements.
An article, comprising: an electrode comprising lithium as an electroactive material; and a hybrid layer comprising an inorganic material and an organic polymer proximate a surface of the electrode, the hybrid layer further comprising a tantalum-containing compound; wherein the electrode is an anode; wherein the tantalum-containing compound comprises a compound of the formula: TaX 5-y-z (A) y (OH) z , where, X = F, Br, Cl, or I; y = 0 to 5, z = 0 to 5, and y + z = 1 to 5; and A = an oxygen-based anion; and wherein the hybrid layer comprises a cross-linked network of inorganic nanoparticles and the organic polymer, wherein the inorganic nanoparticles comprise alumina nanoparticles. an electrode comprising lithium as an electroactive material; and a hybrid layer comprising an inorganic material and an organic polymer proximate a surface of the electrode, the hybrid layer further comprising a tantalum-containing compound; wherein the electrode is an anode; wherein the tantalum-containing compound comprises a compound of the formula: TaX 5-y-z (A) y (OH) z , where, X = F, Br, Cl, or I; y = 0 to 5, z = 0 to 5, and y + z = 1 to 5; and A = an oxygen-based anion; and wherein the hybrid layer comprises a cross-linked network of inorganic nanoparticles and the organic polymer, wherein the inorganic nanoparticles comprise alumina nanoparticles.
A method of fabricating packaged semiconductor devices in panel format, comprising: providing a flat panel sheet as a carrier including a stiff substrate of an insulating plate suitable to maintain panel flatness, and a tape having a surface layer of a first adhesive releasable at elevated temperatures, a core base film , and a bottom layer with a second adhesive, the bottom layer attached to the substrate , the panel having lateral dimensions suitable for a set of contiguous semiconductor chips ; attaching a set of contiguous semiconductor chips onto the first adhesive layer, the set forming a rectangle with sidewalls, the chip terminals having metal bumps facing away from the first adhesive layer; laminating, under vacuum suction, a compliant insulating material to cohesively cover the chip terminal bumps and to fill gaps between the bumps , and to form an insulating frame surrounding the rectangle sidewalls, the material having a coefficient of thermal expansion approaching the coefficient of the semiconductor chips ; grinding lamination material uniformly until the tops of the metal bumps are exposed; plasma-cleaning and cooling the panel and attached chip set in an equipment for sputtering metals; and sputtering, at uniform energy and rate, at least one layer of metal onto the exposed lamination and terminal bumps . providing a flat panel sheet as a carrier including a stiff substrate of an insulating plate suitable to maintain panel flatness, and a tape having a surface layer of a first adhesive releasable at elevated temperatures, a core base film , and a bottom layer with a second adhesive, the bottom layer attached to the substrate , the panel having lateral dimensions suitable for a set of contiguous semiconductor chips ; attaching a set of contiguous semiconductor chips onto the first adhesive layer, the set forming a rectangle with sidewalls, the chip terminals having metal bumps facing away from the first adhesive layer; laminating, under vacuum suction, a compliant insulating material to cohesively cover the chip terminal bumps and to fill gaps between the bumps , and to form an insulating frame surrounding the rectangle sidewalls, the material having a coefficient of thermal expansion approaching the coefficient of the semiconductor chips ; grinding lamination material uniformly until the tops of the metal bumps are exposed; plasma-cleaning and cooling the panel and attached chip set in an equipment for sputtering metals; and sputtering, at uniform energy and rate, at least one layer of metal onto the exposed lamination and terminal bumps .
Method for manoeuvring a motor vehicle by remote control, in which a mobile terminal external to the motor vehicle is used to transmit a control signal to a control unit of the motor vehicle , the motor vehicle is transferred by means of the control unit , on the basis of the control signal, to an autonomous driving mode in which the motor vehicle is manoeuvred autonomously, and the motor vehicle is captured by means of a capture device of the mobile terminal during manoeuvring, wherein the motor vehicle is operated only in the autonomous driving mode while the motor vehicle is captured by means of the capture device of the mobile terminal , characterized in that the motor vehicle is captured by detecting a shape and/or a colour of the motor vehicle by means of an optical sensor of the capture device .
Method for charging a cyclically rechargeable traction battery of at least partially electrically driven vehicles, wherein a charging station has at least one battery storage installation and at least one charging device , wherein the at least one charging device has at least one energy transmission device which is used to transmit electrical energy, in a traction battery charging mode, to a traction battery to be charged of a vehicle which is at least partially electrically driven by means of the traction battery to be charged, characterized in that the at least one battery storage installation has a multiplicity of cyclically rechargeable batteries (B1 to Bx) which are combined in a plurality of battery groups (BG11 to BGn4), wherein starter batteries having an asymmetrical discharging and charging characteristic are used as batteries (B1 to Bx), in that the battery groups (BG11 to BGn4), during in each case short battery group discharging periods (t1 to t30) of 10 to 30 seconds, supply a high battery group discharging current of 300 to 800 A in immediate temporal succession to a traction battery of an at least partially electrically driven vehicle , which traction battery is connected to the charging device or is connected in an energy-transmitting manner to a charging device , wherein immediately successive short battery group discharging periods (t1 to t30) produce the high battery group discharging current and therefore a high charging current (I) for the traction battery to be charged over a charging period (T1) which is longer than a discharging operation of an individual battery group.
A method of preparing a sulfonated co-polyester, the method comprising: polymerizing a first pre-polymer with a second pre-polymer to form a metal sulfonated co-polymer; reacting the metal sulfonated co-polymer with a fast crystallizing polyester block to provide an amorphous sulfonated co-polyester; and crystallizing the amorphous sulfonated co-polyester to form a crystallized sulfonated co-polyester; wherein: the first pre-polymer comprises the reaction product of a dicarboxylic acid or ester thereof, and a first alkylene diol; and the second pre-polymer comprises the reaction product of an aromatic sulfonate or a salt or ester thereof, with a second alkylene diol. polymerizing a first pre-polymer with a second pre-polymer to form a metal sulfonated co-polymer; reacting the metal sulfonated co-polymer with a fast crystallizing polyester block to provide an amorphous sulfonated co-polyester; and crystallizing the amorphous sulfonated co-polyester to form a crystallized sulfonated co-polyester; wherein: the first pre-polymer comprises the reaction product of a dicarboxylic acid or ester thereof, and a first alkylene diol; and the second pre-polymer comprises the reaction product of an aromatic sulfonate or a salt or ester thereof, with a second alkylene diol. the first pre-polymer comprises the reaction product of a dicarboxylic acid or ester thereof, and a first alkylene diol; and the second pre-polymer comprises the reaction product of an aromatic sulfonate or a salt or ester thereof, with a second alkylene diol.
A kitchen appliance, comprising: a bowl ; a lid arranged to be fitable to the bowl; a removable seal arranged to be fitted between the lid and the bowl when the lid is fitted to the bowl; characterised by a safety device comprising a safety interlock mechanism arranged to allow operation of the kitchen appliance only when both the lid is fitted to the bowl and the seal is fitted between the lid and the bowl. a bowl ; a lid arranged to be fitable to the bowl; a removable seal arranged to be fitted between the lid and the bowl when the lid is fitted to the bowl; characterised by a safety device comprising a safety interlock mechanism arranged to allow operation of the kitchen appliance only when both the lid is fitted to the bowl and the seal is fitted between the lid and the bowl.
Method for detecting the state of occupancy of at least one piece of furniture in the form of a table, having a sensor device for detecting a movement of a furniture part of the piece of furniture , wherein the piece of furniture is detected as occupied by an individual and an occupancy signal is generated if a movement pattern of the furniture part which corresponds to a reference movement pattern for an occupied state is determined via the sensor device , wherein the furniture part the movement of which is sensed via the sensor device is an adjustable furniture part , the adjustable furniture part is adjustable with respect to a furniture support part of the piece of furniture and a relative movement of the adjustable furniture part with respect to the furniture support part is detected by the sensor device , wherein the piece of furniture has at least one electric drive motor for adjusting the adjustable furniture part with respect to the furniture support part , wherein the movement pattern of the adjustable furniture part for detecting the occupancy state is determined during a rest phase of the electric drive motor , wherein the movement of the adjustable furniture part is monitored continuously and a comparison with the reference movement pattern is carried out as soon as a movement of the adjustable furniture part over a minimum time period is detected with the aid of the sensor device . wherein the piece of furniture is detected as occupied by an individual and an occupancy signal is generated if a movement pattern of the furniture part which corresponds to a reference movement pattern for an occupied state is determined via the sensor device , wherein the furniture part the movement of which is sensed via the sensor device is an adjustable furniture part , the adjustable furniture part is adjustable with respect to a furniture support part of the piece of furniture and a relative movement of the adjustable furniture part with respect to the furniture support part is detected by the sensor device , wherein the piece of furniture has at least one electric drive motor for adjusting the adjustable furniture part with respect to the furniture support part , wherein the movement pattern of the adjustable furniture part for detecting the occupancy state is determined during a rest phase of the electric drive motor , wherein the movement of the adjustable furniture part is monitored continuously and a comparison with the reference movement pattern is carried out as soon as a movement of the adjustable furniture part over a minimum time period is detected with the aid of the sensor device .
A method in a user equipment, the method comprising: receiving , at the user equipment, in a first serving cell, configuration information; determining whether the configuration information includes a cell identifier; determining a pathloss estimate for an uplink transmission transmit power setting based on a pathloss reference signal associated with a second serving cell if the configuration information includes the cell identifier, wherein the second serving cell is different from the first serving cell; and transmitting the uplink transmission on the first serving cell based on the determined pathloss estimate. receiving , at the user equipment, in a first serving cell, configuration information; determining whether the configuration information includes a cell identifier; determining a pathloss estimate for an uplink transmission transmit power setting based on a pathloss reference signal associated with a second serving cell if the configuration information includes the cell identifier, wherein the second serving cell is different from the first serving cell; and transmitting the uplink transmission on the first serving cell based on the determined pathloss estimate.
An input system (100; 200; 300) for controlling a catheter-based procedure system that includes a robotic drive configured to control rotational motion and axial motion of one or more elongated medical devices , the input system (100; 200; 300) comprising: a body (104; 204; 304); a first control coupled to the body (104; 204; 304) and configured to instruct the robotic drive to axially move one of the one or more elongated medical devices in response to manipulation of the first control by a user; a second control coupled to the body (104; 204; 304) and configured to instruct the robotic drive to rotate one of the one or more elongated medical devices in response to manipulation of the second control by the user; and a third control coupled to the body , wherein the first control and the second control are configured to instruct the robotic drive only if the third control is manipulated by the user, the first control and the second control positioned on the body (104; 204; 304) so that the first control and the second control are simultaneously manipulatable by a first digit and a second digit on one of the hands of the user, characterized in that the body (104; 204; 304) is configured to be held in hands of the user while controlling the rotational motion and the axial motion of the one or more elongated medical devices . a body (104; 204; 304); a first control coupled to the body (104; 204; 304) and configured to instruct the robotic drive to axially move one of the one or more elongated medical devices in response to manipulation of the first control by a user; a second control coupled to the body (104; 204; 304) and configured to instruct the robotic drive to rotate one of the one or more elongated medical devices in response to manipulation of the second control by the user; and a third control coupled to the body , wherein the first control and the second control are configured to instruct the robotic drive only if the third control is manipulated by the user, the first control and the second control positioned on the body (104; 204; 304) so that the first control and the second control are simultaneously manipulatable by a first digit and a second digit on one of the hands of the user, characterized in that the body (104; 204; 304) is configured to be held in hands of the user while controlling the rotational motion and the axial motion of the one or more elongated medical devices .
Computer-implemented method for operating a deep neural network that has at least one skip connection and that determines an output variable (y) depending on an input variable (x), wherein the layer that receives the input variable (x) is an input layer and the layer that outputs the output variable (y) is an output layer, wherein a path characterizes an uninterrupted, forward-directed sequence of a multiplicity of layers of the deep neural network and the path characterizes how this multiplicity of layers of the deep neural network are connected in succession in order to propagate the input variable through the deep neural network starting at the input layer up to the output layer, the method comprising the following steps: selecting a first path through the deep neural network along the skip connection ; determining an output variable by propagating an input variable (x) of the deep neural network along the first path; and checking whether the output variable corresponds to a predefinable criterion, wherein, if the predefinable criterion is not met, a second path through the deep neural network , which differs from the first path , is selected and the output variable is determined by propagating the input variable (x) of the deep neural network along the second path , wherein, if the predefinable criterion has been met, a control variable is determined depending on the output variable of the deep neural network, wherein the control variable is used to control an actuator of a technical system, wherein the technical system is an at least partially autonomous machine, an at least partially autonomous vehicle, a robot, a tool, a machine tool or a flying object. selecting a first path through the deep neural network along the skip connection ; determining an output variable by propagating an input variable (x) of the deep neural network along the first path; and checking whether the output variable corresponds to a predefinable criterion, wherein, if the predefinable criterion is not met, a second path through the deep neural network , which differs from the first path , is selected and the output variable is determined by propagating the input variable (x) of the deep neural network along the second path , wherein, if the predefinable criterion has been met, a control variable is determined depending on the output variable of the deep neural network, wherein the control variable is used to control an actuator of a technical system, wherein the technical system is an at least partially autonomous machine, an at least partially autonomous vehicle, a robot, a tool, a machine tool or a flying object.