mhurhangee/patent-ind-claim-en huggingface dataset:
A robotic system comprising: first and second input devices ; first and second manipulators ; and a processor configured to: cause the first and second input devices to be operatively coupled to the first manipulator in a first operating mode, so that concurrent movements of the first and second input devices result in a corresponding movement of the first manipulator ; and characterized by the processor further configured to: determine that the first input device has been manipulated alone in a predefined manner, wherein the predefined manner corresponds to a movement of the first input device that results in a corresponding movement of the second manipulator when the first input device is operatively coupled to the second manipulator in a second operating mode; and conditioned upon at least determining that the first input device has been manipulated alone in the predefined manner, cause the first and second input devices to be operatively decoupled from the first manipulator in the first operating mode and cause the first input device to be operatively coupled to the second manipulator in the second operating mode. first and second input devices ; first and second manipulators ; and a processor configured to: cause the first and second input devices to be operatively coupled to the first manipulator in a first operating mode, so that concurrent movements of the first and second input devices result in a corresponding movement of the first manipulator ; and characterized by the processor further configured to: determine that the first input device has been manipulated alone in a predefined manner, wherein the predefined manner corresponds to a movement of the first input device that results in a corresponding movement of the second manipulator when the first input device is operatively coupled to the second manipulator in a second operating mode; and conditioned upon at least determining that the first input device has been manipulated alone in the predefined manner, cause the first and second input devices to be operatively decoupled from the first manipulator in the first operating mode and cause the first input device to be operatively coupled to the second manipulator in the second operating mode. determine that the first input device has been manipulated alone in a predefined manner, wherein the predefined manner corresponds to a movement of the first input device that results in a corresponding movement of the second manipulator when the first input device is operatively coupled to the second manipulator in a second operating mode; and conditioned upon at least determining that the first input device has been manipulated alone in the predefined manner, cause the first and second input devices to be operatively decoupled from the first manipulator in the first operating mode and cause the first input device to be operatively coupled to the second manipulator in the second operating mode.
A variable-magnification observation optical system (LZ) consisting of: an objective system (LO) including an erecting system (PR) between a first group (Gr1) and a second group (Gr2) that erects an inverted image; and an eyepiece system (LE) that allows the erect image formed by the erecting system (PR) to be observed through a pupil (EP), wherein the objective system (LO) further includes the first group (Gr1) having positive power, the second group (Gr2) having positive power, and a third group (Gr3) having negative power in order from the object side, the eyepiece system (LE) includes a fourth group (Gr4) having positive power and a fifth group (Gr5) having positive power in order from the object side, characterized in that zooming from a low magnification end to a large magnification end involves moving the third group (Gr3) and the fourth group (Gr4) in opposite directions along an optical axis (AX) while locating an image plane (IM) between the third group (Gr3) and the fourth group (Gr4), the fifth group (Gr5) includes in order from the object side a negative meniscus lens, defined as a Lens 5-1 (L51), and a positive lens with an air gap therebetween, the negative meniscus lens (L51) having a concave surface facing the object, and the fifth group (Gr5) has at least one aspheric surface, wherein conditional equation is satisfied: 0.5 < Rb + Ra / Rb − Ra < 3.5 wherein Ra: a radius of curvature of the object-side surface of the Lens 5-1 (L51), Rb: a radius of curvature of the pupil-side surface of the Lens 5-1 (L51). an objective system (LO) including an erecting system (PR) between a first group (Gr1) and a second group (Gr2) that erects an inverted image; and an eyepiece system (LE) that allows the erect image formed by the erecting system (PR) to be observed through a pupil (EP), the objective system (LO) further includes the first group (Gr1) having positive power, the second group (Gr2) having positive power, and a third group (Gr3) having negative power in order from the object side, the eyepiece system (LE) includes a fourth group (Gr4) having positive power and a fifth group (Gr5) having positive power in order from the object side, characterized in that zooming from a low magnification end to a large magnification end involves moving the third group (Gr3) and the fourth group (Gr4) in opposite directions along an optical axis (AX) while locating an image plane (IM) between the third group (Gr3) and the fourth group (Gr4), the fifth group (Gr5) includes in order from the object side a negative meniscus lens, defined as a Lens 5-1 (L51), and a positive lens with an air gap therebetween, the negative meniscus lens (L51) having a concave surface facing the object, and the fifth group (Gr5) has at least one aspheric surface, Ra: a radius of curvature of the object-side surface of the Lens 5-1 (L51), Rb: a radius of curvature of the pupil-side surface of the Lens 5-1 (L51).
A method for selecting by a processor images for processing from images captured by an in-vivo device, the method comprising: for a group of contiguous images captured in a body lumen, with each image is associated a general score, GS, indicative of a probability that the image includes at least one type of pathology, performing, (i) identifying a greatest GS among the GSs, selecting an image related to the greatest GS and nullifying the greatest GS related to the selected image; (ii) identifying an object in the selected image; (iii) searching for an object which is the same as the identified object in images near the selected image; characterized in that the method further includes the following steps: (iv) nullifying the GSs of each image that contains the object; and repeating steps (i)-(iv), for the non-nullified GSs, until a number N of images is selected, or until the value of an identified greatest GS is lower than a score threshold; further comprising displaying the N selected images or a subset of the N selected images. (i) identifying a greatest GS among the GSs, selecting an image related to the greatest GS and nullifying the greatest GS related to the selected image; (ii) identifying an object in the selected image; (iii) searching for an object which is the same as the identified object in images near the selected image; characterized in that the method further includes the following steps: (iv) nullifying the GSs of each image that contains the object; and repeating steps (i)-(iv), for the non-nullified GSs, until a number N of images is selected, or until the value of an identified greatest GS is lower than a score threshold; further comprising displaying the N selected images or a subset of the N selected images. (iv) nullifying the GSs of each image that contains the object; and repeating steps (i)-(iv), for the non-nullified GSs, until a number N of images is selected, or until the value of an identified greatest GS is lower than a score threshold; further comprising displaying the N selected images or a subset of the N selected images.
Ventilation arrangement for a housing, having a ventilation channel with a mouth opening and a first shielding hood shielding the mouth opening , wherein the ventilation channel widens and/or narrows in cross section toward the mouth opening , and the mouth opening is encompassed by the first shielding hood , leaving a gap free, characterized in that the first shielding hood is encompassed by a second shielding hood , and coaxially running grooves are arranged on the outer casing side of the ventilation channel and on the outer casing side of the second shielding hood .
Sensor for a magnetic measuring device for the detection of a rotational or translational movement of a body , with a permanent magnet which is connected in a rotationally fixed manner to the body and moves together with the body , wherein the body extends in an axial direction as far as a free end, wherein a plastic-bonded permanent-magnetic material is injection-moulded onto the free end of the body as an axial extension and forms the permanent magnet .
A metallocene catalyst complex of formula (I): wherein Mt is Hf or Zr; each X is a sigma-ligand, each R 1 independently are the same or can be different and are a CH 2 -R 7 group, with R 7 being H or linear or branched C 1 - 6 -alkyl group, C 3-8 cycloalkyl group, C 6-10 aryl group, each R 2 is independently a -CH=, -CY=, -CH 2 -, -CHY- or -CY 2 - group, wherein Y is a C 1 - 10 hydrocarbyl group and where n is 2-6, each R 3 and R 4 are independently the same or can be different and are hydrogen, a linear or branched C 1 -C 6 -alkyl group, an OY group or a C 7 - 20 arylalkyl, C 7 - 20 alkylaryl group or C 6 - 20 aryl group, whereby at least one R 3 per phenyl group and at least one R 4 is not hydrogen, and optionally two adjacent R 3 or R 4 groups can be part of a ring including the phenyl carbons to which they are bonded, R 5 is a linear or branched C 1 -C 6 -alkyl group, C 7 - 20 arylalkyl, C 7 - 20 alkylaryl group or C 6 -C 20 -aryl group, R 6 is a C(R 8 ) 3 group, with R 8 being a linear or branched C 1 -C 6 alkyl group, each R is independently a C 1 -C 20 -hydrocarbyl, C 6 -C 20 -aryl, C 7 -C 20 -arylalkyl or C 7 -C 20 -alkylaryl. Mt is Hf or Zr; each X is a sigma-ligand, each R 1 independently are the same or can be different and are a CH 2 -R 7 group, with R 7 being H or linear or branched C 1 - 6 -alkyl group, C 3-8 cycloalkyl group, C 6-10 aryl group, each R 2 is independently a -CH=, -CY=, -CH 2 -, -CHY- or -CY 2 - group, wherein Y is a C 1 - 10 hydrocarbyl group and where n is 2-6, each R 3 and R 4 are independently the same or can be different and are hydrogen, a linear or branched C 1 -C 6 -alkyl group, an OY group or a C 7 - 20 arylalkyl, C 7 - 20 alkylaryl group or C 6 - 20 aryl group, whereby at least one R 3 per phenyl group and at least one R 4 is not hydrogen, and optionally two adjacent R 3 or R 4 groups can be part of a ring including the phenyl carbons to which they are bonded, R 5 is a linear or branched C 1 -C 6 -alkyl group, C 7 - 20 arylalkyl, C 7 - 20 alkylaryl group or C 6 -C 20 -aryl group, R 6 is a C(R 8 ) 3 group, with R 8 being a linear or branched C 1 -C 6 alkyl group, each R is independently a C 1 -C 20 -hydrocarbyl, C 6 -C 20 -aryl, C 7 -C 20 -arylalkyl or C 7 -C 20 -alkylaryl.
An electronic smoking device , comprising: a power supply portion comprising a power supply , and an atomizer/liquid reservoir portion comprising a liquid reservoir storing liquid, and an atomizer operable when connected to the power supply to atomize liquid stored in the liquid reservoir , wherein the electronic smoking device comprises a liquid pump for pumping liquid from the liquid reservoir to the atomizer , characterized in that the electronic smoking device further comprises control electronics that are adapted to control the temperature of the powered atomizer by controlling the pump rate of the liquid pump , such that the temperature of the powered atomizer is below a temperature which overheats the liquid. a power supply portion comprising a power supply , and an atomizer/liquid reservoir portion comprising a liquid reservoir storing liquid, and an atomizer operable when connected to the power supply to atomize liquid stored in the liquid reservoir , wherein the electronic smoking device comprises a liquid pump for pumping liquid from the liquid reservoir to the atomizer , characterized in that the electronic smoking device further comprises control electronics that are adapted to control the temperature of the powered atomizer by controlling the pump rate of the liquid pump , such that the temperature of the powered atomizer is below a temperature which overheats the liquid. a liquid reservoir storing liquid, and an atomizer operable when connected to the power supply to atomize liquid stored in the liquid reservoir , wherein the electronic smoking device comprises a liquid pump for pumping liquid from the liquid reservoir to the atomizer , characterized in that the electronic smoking device further comprises control electronics that are adapted to control the temperature of the powered atomizer by controlling the pump rate of the liquid pump , such that the temperature of the powered atomizer is below a temperature which overheats the liquid.
A polymer consisting of: a unit represented by any one of the following Chemical Formula 4-1, Chemical Formula 5-1, Chemical Formula 6-1, and Chemical Formula 7-1: in Chemical Formula 4-1, Chemical Formula 5-1, Chemical Formula 6-1, and Chemical Formula 7-1, A1, A2, A'1 and A'2 are the same as or different from each other, and are each independently hydrogen; or fluorine, A3 and A4 are the same as or different from each other, and are each independently a substituted or unsubstituted alkyl group, R1, R4 to R8, R'1, R'4, R10 to R13, R'12, and R'13 are the same as or different from each other, and are each independently hydrogen; or a substituted or unsubstituted alkyl group, 1 is a molar ratio and 0 < 1 < 1, m is a molar ratio and 0 < m < 1, o is a molar ratio and 0 < o < 1, p is a molar ratio and 0 < p < 1, q is a molar ratio and 0 < q < 1, 1 + m = 1, o + p + q = 1, and n is a repeating number of the unit, and an integer from 1 to 10,000, wherein the polymer has a number average molecular weight of 5,000 g/mol to 1,000,000 g/mol, and wherein the number average molecular weight is measured by GPC. A1, A2, A'1 and A'2 are the same as or different from each other, and are each independently hydrogen; or fluorine, A3 and A4 are the same as or different from each other, and are each independently a substituted or unsubstituted alkyl group, R1, R4 to R8, R'1, R'4, R10 to R13, R'12, and R'13 are the same as or different from each other, and are each independently hydrogen; or a substituted or unsubstituted alkyl group, 1 is a molar ratio and 0 < 1 < 1, m is a molar ratio and 0 < m < 1, o is a molar ratio and 0 < o < 1, p is a molar ratio and 0 < p < 1, q is a molar ratio and 0 < q < 1, 1 + m = 1, o + p + q = 1, and n is a repeating number of the unit, and an integer from 1 to 10,000, wherein the polymer has a number average molecular weight of 5,000 g/mol to 1,000,000 g/mol, and wherein the number average molecular weight is measured by GPC.
Monitor system for a human or animal eye , at least comprising a monitor which can be implanted in the eye and is connected to a power receiver and a data receiver , a camera for recording image data, which is connected to a first transmission unit for processing, in particular compressing, and for wirelessly transmitting at least the image data via a first transmission channel to the data receiver , wherein the data receiver is configured for receiving the image data and forwarding it to the monitor , wherein the monitor is configured to display image data recorded by the camera , wherein the monitor is designed to be arranged in place of the lens in the lens sac of the eye , in particular wherein the power receiver and/or the data receiver is arranged on a side of the monitor facing the outside world, and wherein a projection apparatus is provided on a side of the monitor facing an inside of the eye , whereby the image data can be projected onto the retina , characterized in that the monitor has an opening with the form and action of a pupil, whereby light from outside the eye falls onto the retina . a monitor which can be implanted in the eye and is connected to a power receiver and a data receiver , a camera for recording image data, which is connected to a first transmission unit for processing, in particular compressing, and for wirelessly transmitting at least the image data via a first transmission channel to the data receiver , wherein the data receiver is configured for receiving the image data and forwarding it to the monitor , wherein the monitor is configured to display image data recorded by the camera , wherein the monitor is designed to be arranged in place of the lens in the lens sac of the eye , in particular wherein the power receiver and/or the data receiver is arranged on a side of the monitor facing the outside world, and wherein a projection apparatus is provided on a side of the monitor facing an inside of the eye , whereby the image data can be projected onto the retina , characterized in that the monitor has an opening with the form and action of a pupil, whereby light from outside the eye falls onto the retina .
Method for configuring at least one device in a network , which network extends over a first rail vehicle and a second rail vehicle coupled to the first rail vehicle and in which network a first server of the first rail vehicle and a second server of the second rail vehicle are arranged, in which method the first and second rail vehicle are mechanically connected to one another during coupling and the network is set up, characterised in that the first server reports its existence in the network , the second server receives the existence message from the first server , a device of the second rail vehicle is configured using the existence message from the first server for communication with at least one specific device of the first rail vehicle , the first server communicates retrieval information with the existence message, the second server retrieves device information about the at least one specific device of the first rail vehicle based on the retrieval information received with the existence message, and by means of said retrieved device information, at least one device of the second rail vehicle is configured for communication with the at least one specific device of the first rail vehicle .
Hose line having an insulating layer for use as line for a temperature-control medium, with an elastic plastic hose that is surrounded by a reinforcement fabric , wherein the insulating layer directly and with positive fit lies on the reinforcement fabric and is crosslinked, characterized in that the insulating layer has pores and in that the hose line on at least one end has a connecting piece having a ferrule that directly lies on the reinforcement fabric , wherein residues of the insulating layer adhere in or at the reinforcement fabric and wherein the insulating layer is arranged on the reinforcement fabric at a distance of at most 2 mm from the ferrule .
A metal alloy characterized in that it consists of the following elements, in percent by weight, on the total weight of the alloy: Niobium (Nb): 1-4% Hafnium (Hf): 0-0.5% Chromium (Cr): 27-29% Nickel (Ni): 1-5% Carbon (C): 0.3-0.45% Tantalum (Ta): 0-2% Titanium (Ti): 0-2% Iron (Fe): 1-3% Manganese (Mn): less than 0,5% Silicon (Si): less than 0,3% Zirconium (Zr): less than 0.2% the remainder being cobalt (Co) and unavoidable impurities. Niobium (Nb): 1-4% Hafnium (Hf): 0-0.5% Chromium (Cr): 27-29% Nickel (Ni): 1-5% Carbon (C): 0.3-0.45% Tantalum (Ta): 0-2% Titanium (Ti): 0-2% Iron (Fe): 1-3% Manganese (Mn): less than 0,5% Silicon (Si): less than 0,3% Zirconium (Zr): less than 0.2% the remainder being cobalt (Co) and unavoidable impurities.
A method of transmitting a wireless signal corresponding to a data input, the method comprising: generating, from the data input, a quadrature signal comprising a real component "I" signal and an imaginary component "Q" signal, the I and Q signals providing I n and Q n values for each transmission unit n of a plurality of transmission units; rotating the quadrature signal by an angle to provide signal space diversity thereby generating rotated I and Q signals; and interleaving the rotated I and Q signals to leave a gap of at least L transmission units between corresponding I n and Q n values for each of the transmission units n of the plurality of transmission units, wherein L is selected to be equal to or greater than an expected maximum size, measured in transmission units, of a possible colliding wireless signal, thereby generating interleaved I and Q signals. generating, from the data input, a quadrature signal comprising a real component "I" signal and an imaginary component "Q" signal, the I and Q signals providing I n and Q n values for each transmission unit n of a plurality of transmission units; rotating the quadrature signal by an angle to provide signal space diversity thereby generating rotated I and Q signals; and interleaving the rotated I and Q signals to leave a gap of at least L transmission units between corresponding I n and Q n values for each of the transmission units n of the plurality of transmission units, wherein L is selected to be equal to or greater than an expected maximum size, measured in transmission units, of a possible colliding wireless signal, thereby generating interleaved I and Q signals.
A HLA-B27 fusion protein homodimer for use in the treatment or prevention of cancer, wherein said homodimer comprises, or consists of, a first and a second monomer, and each monomer comprises independently of the other monomer: i. a HLA-B27 heavy chain, and ii. an Fc fragment. i. a HLA-B27 heavy chain, and ii. an Fc fragment.
A system comprising: at least one processor ; and a memory storing instructions which, when executed by the at least one processor, performs a method for recreating a three-dimensional scene using data captured from a moveable camera, comprising: receiving data captured by the moveable camera relating to the three-dimensional scene; generating a reconstruction of the three-dimensional scene based on the received data; identifying one or more surface points within the three-dimensional scene; generating a graph of a plurality of camera positions, comprising one or more nodes and one or more edges; determining , based on the graph, a subgradient of the one or more nodes; generating , based on the subgradient and the graph, an optimal trajectory for the moveable camera; and providing the optimal trajectory to the moveable camera. at least one processor ; and a memory storing instructions which, when executed by the at least one processor, performs a method for recreating a three-dimensional scene using data captured from a moveable camera, comprising: receiving data captured by the moveable camera relating to the three-dimensional scene; generating a reconstruction of the three-dimensional scene based on the received data; identifying one or more surface points within the three-dimensional scene; generating a graph of a plurality of camera positions, comprising one or more nodes and one or more edges; determining , based on the graph, a subgradient of the one or more nodes; generating , based on the subgradient and the graph, an optimal trajectory for the moveable camera; and providing the optimal trajectory to the moveable camera. receiving data captured by the moveable camera relating to the three-dimensional scene; generating a reconstruction of the three-dimensional scene based on the received data; identifying one or more surface points within the three-dimensional scene; generating a graph of a plurality of camera positions, comprising one or more nodes and one or more edges; determining , based on the graph, a subgradient of the one or more nodes; generating , based on the subgradient and the graph, an optimal trajectory for the moveable camera; and providing the optimal trajectory to the moveable camera.