mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a vacuum chamber comprising an interior region, wherein the interior region is configured to receive a target and a light beam, the target comprises target material, and the target material emits extreme ultraviolet, EUV, light when in a plasma state; characterised by: a detection system configured to image the interior region, the detection system configured to detect light emission from atoms, ions, or molecules in the interior region and to produce a representation of a spatial distribution of the light emission in the interior region; and a control system coupled to the detection system, the control system configured to: analyze the representation of the spatial distribution of the light emission to determine a spatial distribution of the light emission from atoms, ions, or molecules in the interior region; and determine whether to adjust at least one property of the light beam and/or at least one property of the vacuum chamber based on the spatial distribution of the light emission. comprising an interior region, wherein the interior region is configured to receive a target and a light beam, the target comprises target material, and the target material emits extreme ultraviolet, EUV, light when in a plasma state; characterised by: a detection system configured to image the interior region, the detection system configured to detect light emission from atoms, ions, or molecules in the interior region and to produce a representation of a spatial distribution of the light emission in the interior region; and a control system coupled to the detection system, the control system configured to: analyze the representation of the spatial distribution of the light emission to determine a spatial distribution of the light emission from atoms, ions, or molecules in the interior region; and determine whether to adjust at least one property of the light beam and/or at least one property of the vacuum chamber based on the spatial distribution of the light emission. a detection system configured to image the interior region, the detection system configured to detect light emission from atoms, ions, or molecules in the interior region and to produce a representation of a spatial distribution of the light emission in the interior region; and a control system coupled to the detection system, the control system configured to: analyze the representation of the spatial distribution of the light emission to determine a spatial distribution of the light emission from atoms, ions, or molecules in the interior region; and determine whether to adjust at least one property of the light beam and/or at least one property of the vacuum chamber based on the spatial distribution of the light emission. analyze the representation of the spatial distribution of the light emission to determine a spatial distribution of the light emission from atoms, ions, or molecules in the interior region; and determine whether to adjust at least one property of the light beam and/or at least one property of the vacuum chamber based on the spatial distribution of the light emission.
A substrate coated on one face with a thin-films stack having reflection properties in the infrared and/or in solar radiation comprising a single metallic functional layer, in particular based on silver or on a metal alloy containing silver, and two antireflection coatings (120, 160), said coatings each comprising at least one dielectric layer (122, 164), said functional layer being positioned between the two antireflection coatings (120, 160), characterized in that at least one of said antireflection coatings (120, 160) comprises an intermediate layer comprising zinc tin oxide Sn x Zn y O z with a ratio of 0.1 ≤ x/y ≤ 2.4, with 0.75(2x + y) ≤ z ≤ 0.95(2x + y) and having a physical thickness of between 2 nm and 25 nm, or even between 2 nm and 12 nm.
A method, comprising: at an electronic device with a display, a touch-sensitive surface, and memory storing a first software application: displaying a user interface at a first display rate; while displaying the user interface, detecting, at a first detection rate that is greater than the first display rate, movement of a touch input at a sequence of locations on the touch-sensitive surface; at each of a sequence of communication times, sending to the first software application a respective message having information that includes a selected subset of the sequence of locations, each selected subset of the sequence of locations comprising a plurality of locations of the touch input during a preceding time period, wherein each communication time precedes a display update time in a sequence of display update times by at least a processing margin time to enable the first software application to process and use the selected subset for updating the user interface at the display update time; and, at each display update time of the sequence of display update times, the first software application updating the user interface from a respective current state to a respective next state in accordance with the information in the respective message sent to the first software application at a respective communication time, in the sequence of communication times, prior to the display update time; the information in the respective message including the plurality of locations of the touch input in a respective selected subset of the sequence of locations. displaying a user interface at a first display rate; while displaying the user interface, detecting, at a first detection rate that is greater than the first display rate, movement of a touch input at a sequence of locations on the touch-sensitive surface; at each of a sequence of communication times, sending to the first software application a respective message having information that includes a selected subset of the sequence of locations, each selected subset of the sequence of locations comprising a plurality of locations of the touch input during a preceding time period, wherein each communication time precedes a display update time in a sequence of display update times by at least a processing margin time to enable the first software application to process and use the selected subset for updating the user interface at the display update time; and, at each display update time of the sequence of display update times, the first software application updating the user interface from a respective current state to a respective next state in accordance with the information in the respective message sent to the first software application at a respective communication time, in the sequence of communication times, prior to the display update time; the information in the respective message including the plurality of locations of the touch input in a respective selected subset of the sequence of locations.
Method of communication within a plurality of local terminals (T 1, T 2, T 3) connected to a domestic gateway, said method comprising: • a step (E 1) of identification by the domestic gateway of all the ongoing communication sessions (C 1) between each local terminal (T 1, T 2) and a respective remote terminal (T' 1, T' 2), the domestic gateway being spliced into the stream between each local terminal and each remote terminal, in which, during the step of identification, the domestic gateway stores in a state table each ongoing communication identified, • a step (E 3) of signalling by the domestic gateway of the set of ongoing communication sessions (C 1; C 2) to said plurality of local terminals (T 1, T 2, T 3), without prior request of said plurality of local terminals; and • a step (E 5) of integration, during which the domestic gateway integrates a given local terminal (T 3) into an ongoing communication session (C 1) engaging another local terminal (T 1), in response to an integration request sent by said given local terminal (T 3). • a step (E 1) of identification by the domestic gateway of all the ongoing communication sessions (C 1) between each local terminal (T 1, T 2) and a respective remote terminal (T' 1, T' 2), the domestic gateway being spliced into the stream between each local terminal and each remote terminal, in which, during the step of identification, the domestic gateway stores in a state table each ongoing communication identified, • a step (E 3) of signalling by the domestic gateway of the set of ongoing communication sessions (C 1; C 2) to said plurality of local terminals (T 1, T 2, T 3), without prior request of said plurality of local terminals; and • a step (E 5) of integration, during which the domestic gateway integrates a given local terminal (T 3) into an ongoing communication session (C 1) engaging another local terminal (T 1), in response to an integration request sent by said given local terminal (T 3).
Composite pane comprising a functional element having electrically controllable optical properties, at least comprising - an inner pane comprising an inner side and an outer side and an outer pane comprising an inner side and an outer side, - a thermoplastic intermediate layer, which joins the inner side of the inner pane to the inner side of the outer pane, - a functional element embedded in the thermoplastic intermediate layer and having electrically controllable optical properties at least comprising a multilayer film containing, arranged surface-to-surface one above the other in this sequence, - a first carrier film (13.1) - a first surface electrode (12.1) - an active layer - a second surface electrode (12.2) - a second carrier film (13.2), wherein the active layer comprises a matrix (7.1) and an active substance (7.2), and the concentration of the active substance (7.2) varies over the surface of the functional element. - an inner pane comprising an inner side and an outer side and an outer pane comprising an inner side and an outer side, - a thermoplastic intermediate layer, which joins the inner side of the inner pane to the inner side of the outer pane, - a functional element embedded in the thermoplastic intermediate layer and having electrically controllable optical properties at least comprising a multilayer film containing, arranged surface-to-surface one above the other in this sequence, - a first carrier film (13.1) - a first surface electrode (12.1) - an active layer - a second surface electrode (12.2) - a second carrier film (13.2),
A medical device, comprising: a first motor operatively coupled with a first drive shaft, wherein the first drive shaft extends substantially along a rotation axis, wherein operation of the first motor rotates the first drive shaft about the rotation axis; a transducer configured for transmitting and/or receiving ultrasound signals, wherein the transducer is disposed to move about a pivot axis which is substantially perpendicular to the rotation axis; characterized by a second motor operatively coupled with a second drive shaft, wherein the second drive shaft extends substantially along the rotation axis, and wherein operation of the second motor rotates the second drive shaft about the rotation axis, wherein the transducer is operatively connected with the second drive shaft, and wherein a difference between the rotational speed of the first motor and the rotational speed of the second motor determines the speed of movement of the transducer about the pivot axis; and wherein the first drive shaft includes a cam surface disposed to impart pivotal motion to the transducer when the first drive shaft rotates. a first motor operatively coupled with a first drive shaft, wherein the first drive shaft extends substantially along a rotation axis, wherein operation of the first motor rotates the first drive shaft about the rotation axis; a transducer configured for transmitting and/or receiving ultrasound signals, wherein the transducer is disposed to move about a pivot axis which is substantially perpendicular to the rotation axis; characterized by a second motor operatively coupled with a second drive shaft, wherein the second drive shaft extends substantially along the rotation axis, and wherein operation of the second motor rotates the second drive shaft about the rotation axis, wherein the transducer is operatively connected with the second drive shaft, and wherein a difference between the rotational speed of the first motor and the rotational speed of the second motor determines the speed of movement of the transducer about the pivot axis; and wherein the first drive shaft includes a cam surface disposed to impart pivotal motion to the transducer when the first drive shaft rotates.
A surgical robot, comprising: a robot body on which a medical instrument is mounted; an input unit configured to input a control information of the robot body; a control unit configured to control the robot body based on the control information input to the input unit; an input side abnormality detection unit comprising a detection switch configured to detect an abnormality of an operator; an output side abnormality detection unit configured to detect an abnormality of a surgery state with the medical instrument, and an abnormality countermeasure unit configured to deal with the abnormality of the surgery state detected by the output side abnormality detection unit, the abnormality countermeasure unit being configured to change a content of an abnormality countermeasure action based on a detection result of the input side abnormality detection unit, characterized in that the abnormality countermeasure unit is configured to judge whether the detection switch measuring a gripping force of an operator provided on an operation handle is ON or OFF, if it is ON, a threshold for a detection value from the output side abnormality detection unit is set to a first value, if it is OFF, the threshold is set to a second value, different from the first value, wherein the abnormality countermeasure unit is configured to start an abnormality countermeasure action if the detection value from the output side abnormality detecting sensor exceeds the threshold. a robot body on which a medical instrument is mounted; an input unit configured to input a control information of the robot body; a control unit configured to control the robot body based on the control information input to the input unit; an input side abnormality detection unit comprising a detection switch configured to detect an abnormality of an operator; an output side abnormality detection unit configured to detect an abnormality of a surgery state with the medical instrument, and an abnormality countermeasure unit configured to deal with the abnormality of the surgery state detected by the output side abnormality detection unit, the abnormality countermeasure unit being configured to change a content of an abnormality countermeasure action based on a detection result of the input side abnormality detection unit, characterized in that the abnormality countermeasure unit is configured to judge whether the detection switch measuring a gripping force of an operator provided on an operation handle is ON or OFF, if it is ON, a threshold for a detection value from the output side abnormality detection unit is set to a first value, if it is OFF, the threshold is set to a second value, different from the first value, wherein the abnormality countermeasure unit is configured to start an abnormality countermeasure action if the detection value from the output side abnormality detecting sensor exceeds the threshold.
A compressor, comprising: a compression device having a compression chamber, a fixed scroll, and an orbiting scroll disposed adjacent to the fixed scroll so as to form the compression chamber therebetween; and configured to receive, compress, and output a refrigerant; a drive motor including a rotor and a stator, configured to rotate the compression device to compress a refrigerant within the compression chamber; a rotational shaft attached to the compression device and the rotor of the drive motor; a first balancing weight attached to the rotational shaft between the orbiting scroll and the rotor, and a second balancing weight attached to the rotational shaft on a side of the rotor opposite the first balancing weight; and a torsional vibration absorbing device attached to the motor that absorbs torsional vibration, characterized in that the second balancing weight comprises first and second masses (121, 122) mounted on an end ring with a gap in a rotational direction therebetween, and wherein the torsional vibration absorbing device comprises: a pivot shaft mounted on the end ring between the first and second masses; and a vibration absorbing member pivotally mounted on the pivot shaft, wherein a rotation angle of the vibration absorbing member is restricted by the first and second masses. a compression device having a compression chamber, a fixed scroll, and an orbiting scroll disposed adjacent to the fixed scroll so as to form the compression chamber therebetween; and configured to receive, compress, and output a refrigerant; a drive motor including a rotor and a stator, configured to rotate the compression device to compress a refrigerant within the compression chamber; a rotational shaft attached to the compression device and the rotor of the drive motor; a first balancing weight attached to the rotational shaft between the orbiting scroll and the rotor, and a second balancing weight attached to the rotational shaft on a side of the rotor opposite the first balancing weight; and a torsional vibration absorbing device attached to the motor that absorbs torsional vibration, characterized in that the second balancing weight comprises first and second masses (121, 122) mounted on an end ring with a gap in a rotational direction therebetween, and wherein the torsional vibration absorbing device comprises: a pivot shaft mounted on the end ring between the first and second masses; and a vibration absorbing member pivotally mounted on the pivot shaft, wherein a rotation angle of the vibration absorbing member is restricted by the first and second masses. a pivot shaft mounted on the end ring between the first and second masses; and a vibration absorbing member pivotally mounted on the pivot shaft, wherein a rotation angle of the vibration absorbing member is restricted by the first and second masses.
Coriolis mass flowmeter for determining the mass flow of a fluid with a flange connection comprising an inflow side flange and an outflow side flange for connection to an external pipeline, with at least one oscillation generator, with at least two oscillation sensors, with at least two measuring tubes (4, 5), with at least one flow divider, wherein the flow divider is arranged upstream of the at least two measuring tubes (4, 5) in the direction of flow, and with at least one flow collector, wherein the flow collector is arranged downstream of the at least two measuring tubes (4, 5), wherein the Coriolis mass flowmeter extends completely between its inflow flange and outflow flange and, as seen in the direction flow has the construction inflow flange, flow divider, measuring tube (4, 5), flow collector, outflow flange, wherein at least an active measuring tube and at least a passive measuring tube are provided, wherein the at least one active measuring tube and the at least one passive measuring tube are designed and arranged separately from one another so that the fluid to be measured within the Coriolis mass flowmeter is separated into independent partial flows, wherein the individual partial flows do not influence the active measuring tube and the passive measuring tube due to the separate design, and wherein the at least one oscillation generator and the at least two oscillation sensors are arranged on the at least one active measuring tube.
A method for obtaining an antibody with an improved expression level and/or stability to acid or heat by modifying a human antibody or a humanized antibody, characterized in that the amino acid residue at position 15 according to Kabat numbering in a light chain variable region (hereinafter referred to as "VL chain") of the human antibody or humanized antibody is substituted with an amino acid, wherein: (a) said VL chain belongs to the human Vκ1 family, wherein FR1 of said VL chain prior to substitution has the amino acid sequence of SEQ ID NO: 1, and the amino acid residue at position 15 after substitution is Arg or Ser; (b) said VL chain belongs to the human Vκ2 family, wherein FR1 of said VL chain prior to substitution has the amino acid sequence of SEQ ID NO: 8, and the amino acid residue at position 15 after substitution is Arg; or (c) said VL chain belongs to the human Vκ3 family, wherein FR1 of said VL chain prior to substitution has the amino acid sequence of SEQ ID NO: 26, and the amino acid residue at position 15 after substitution is Arg, Ser, Gly or Phe; and wherein the method comprises: preparing a gene coding for an amino acid sequence of said human antibody or said humanized antibody or said human antibody fragment or said humanized antibody fragment, each comprising the amino acid sequence of the VL chain after substitution; transforming a non-human host eukaryotic or prokaryotic organism with said gene; expressing said human antibody or said humanized antibody or said human antibody fragment or said humanized antibody fragment from said host; and recovering said human antibody or said humanized antibody or said human antibody fragment or said humanized antibody fragment. (a) said VL chain belongs to the human Vκ1 family, wherein FR1 of said VL chain prior to substitution has the amino acid sequence of SEQ ID NO: 1, and the amino acid residue at position 15 after substitution is Arg or Ser; (b) said VL chain belongs to the human Vκ2 family, wherein FR1 of said VL chain prior to substitution has the amino acid sequence of SEQ ID NO: 8, and the amino acid residue at position 15 after substitution is Arg; or (c) said VL chain belongs to the human Vκ3 family, wherein FR1 of said VL chain prior to substitution has the amino acid sequence of SEQ ID NO: 26, and the amino acid residue at position 15 after substitution is Arg, Ser, Gly or Phe; preparing a gene coding for an amino acid sequence of said human antibody or said humanized antibody or said human antibody fragment or said humanized antibody fragment, each comprising the amino acid sequence of the VL chain after substitution; transforming a non-human host eukaryotic or prokaryotic organism with said gene; expressing said human antibody or said humanized antibody or said human antibody fragment or said humanized antibody fragment from said host; and recovering said human antibody or said humanized antibody or said human antibody fragment or said humanized antibody fragment.
A method comprising: obtaining input associated with a plurality of skin sensors of a touch-aware skin for a computing device (102, 702), the plurality of skin sensors disposed across available outer surfaces (202, 204) of a housing for the computing device to form a grid; detecting a grip pattern and a device placement based upon the input; ascertaining a context for the computing device associated with a combination of the grip pattern and the device placement as detected; selectively activating and deactivating grip sensing and touch input of the skin sensors associated with different outer surfaces according to the ascertained context; and selectively customizing interaction with the computing device according to the ascertained context. obtaining input associated with a plurality of skin sensors of a touch-aware skin for a computing device (102, 702), the plurality of skin sensors disposed across available outer surfaces (202, 204) of a housing for the computing device to form a grid; detecting a grip pattern and a device placement based upon the input; ascertaining a context for the computing device associated with a combination of the grip pattern and the device placement as detected; selectively activating and deactivating grip sensing and touch input of the skin sensors associated with different outer surfaces according to the ascertained context; and selectively customizing interaction with the computing device according to the ascertained context.