mhurhangee/patent-ind-claim-en huggingface dataset:
An exercise machine comprising: a brushless direct-current, BLDC, pancake motor; a torque controller coupled to the pancake motor ; a spool coupled to the pancake motor, and a cable wound about the spool; an arm arranged to position the cable, wherein: the arm is connected to an arm slider , and wherein the arm slider is arranged to slide vertically on a track ; the arm comprises a vertical pivot locking mechanism arranged to position and keep the arm in a fixed vertical pivoted position; and the track is arranged to pivot horizontally; an actuator coupled to the cable at an end of the arm; a high resolution encoder coupled to the pancake BLDC motor, wherein motor position of the pancake BLDC motor is determined based at least in part on the high resolution encoder; and a position encoder configured to determine position of the actuator. a brushless direct-current, BLDC, pancake motor; a torque controller coupled to the pancake motor ; a spool coupled to the pancake motor, and a cable wound about the spool; an arm arranged to position the cable, wherein: the arm is connected to an arm slider , and wherein the arm slider is arranged to slide vertically on a track ; the arm comprises a vertical pivot locking mechanism arranged to position and keep the arm in a fixed vertical pivoted position; and the track is arranged to pivot horizontally; the arm is connected to an arm slider , and wherein the arm slider is arranged to slide vertically on a track ; the arm comprises a vertical pivot locking mechanism arranged to position and keep the arm in a fixed vertical pivoted position; and the track is arranged to pivot horizontally; an actuator coupled to the cable at an end of the arm; a high resolution encoder coupled to the pancake BLDC motor, wherein motor position of the pancake BLDC motor is determined based at least in part on the high resolution encoder; and a position encoder configured to determine position of the actuator.
A method to identify a mechanism of action of a compound using network dysregulation by processing gene expression data acquired from both control and compound-perturbed states of a tissue-specific regulatory network, comprising: (a) selecting a tissue-specific regulatory network having a plurality of interactions each connecting a pair of genes; (b) determining, using a processing arrangement, a two-dimensional probability density of gene expression levels for each of the pairs of genes connected by an interaction in the network in a control state of the regulatory network; (c) determining, using the processing arrangement, a two-dimensional probability density of gene expression levels for each of the pairs of genes connected by an interaction in the network in at least one compound-perturbed state of the regulatory network; (d) estimating, for each of the interactions, differences between the control probability density and the compound-perturbed probability density; (e) determining whether the estimated differences are statistically significant, to provide a set of statistically significant dysregulated interactions, based only on the gene expression data; (f) ranking the statistically significant dysregulated interactions, to provide a set of candidate mechanism of action (MoA) genes; and (g) determining a MoA of the therapeutic compound within the tissue-specific regulatory network, by selecting the set of candidate MoA genes and assessing the MoA in the context of the established regulatory network. (a) selecting a tissue-specific regulatory network having a plurality of interactions each connecting a pair of genes; (b) determining, using a processing arrangement, a two-dimensional probability density of gene expression levels for each of the pairs of genes connected by an interaction in the network in a control state of the regulatory network; (c) determining, using the processing arrangement, a two-dimensional probability density of gene expression levels for each of the pairs of genes connected by an interaction in the network in at least one compound-perturbed state of the regulatory network; (d) estimating, for each of the interactions, differences between the control probability density and the compound-perturbed probability density; (e) determining whether the estimated differences are statistically significant, to provide a set of statistically significant dysregulated interactions, based only on the gene expression data; (f) ranking the statistically significant dysregulated interactions, to provide a set of candidate mechanism of action (MoA) genes; and (g) determining a MoA of the therapeutic compound within the tissue-specific regulatory network, by selecting the set of candidate MoA genes and assessing the MoA in the context of the established regulatory network.
The use of a vibration dampening system in a horizontal stabilizer of an aircraft, the system comprising: a first damper (104/105a) coupled to a front portion of the horizontal stabilizer , the first damper (104/105a) configured to dampen a vibrational force in a first degree of freedom; and a second damper (104/105b) coupled to the horizontal stabilizer proximate to a mounting point of the horizontal stabilizer , the second damper (104/105b) configured to dampen the vibrational force in a second degree of freedom. a first damper (104/105a) coupled to a front portion of the horizontal stabilizer , the first damper (104/105a) configured to dampen a vibrational force in a first degree of freedom; and a second damper (104/105b) coupled to the horizontal stabilizer proximate to a mounting point of the horizontal stabilizer , the second damper (104/105b) configured to dampen the vibrational force in a second degree of freedom.
A capsule endoscope comprising: an actuation component that operates using an electromagnetic force; a power storage device ; and a case in which the actuation component and the power storage device are stored, wherein the power storage device is formed of a non-magnetic body and includes an exterior body formed of non-magnetic stainless steel, and a protective film formed of a material including at least one of carbon and aluminum is provided in at least a part of a surface in the exterior body which is in contact with an electrolytic solution of the power storage device . an actuation component that operates using an electromagnetic force; a power storage device ; and a case in which the actuation component and the power storage device are stored, wherein the power storage device is formed of a non-magnetic body and includes an exterior body formed of non-magnetic stainless steel, and a protective film formed of a material including at least one of carbon and aluminum is provided in at least a part of a surface in the exterior body which is in contact with an electrolytic solution of the power storage device .
A device for remotely generating and reading the impulse response from an excitation of an object , the device comprising: a device for emitting electromagnetic radiation; a detection device arranged to detect the mechanical response from an object irradiated by the electromagnetic radiation; a signal processing unit (S) coupled to said detection device and arranged to receive a signal representation of the response from said detection device; wherein said device for emitting electromagnetic radiation is arranged to transmit pulses of a predetermined intensity in a pulse train (O) according to a predetermined sequential pattern; characterized in that said device for emitting electromagnetic radiation is additionally arranged to transmit pulses of a predetermined wavelength in the pulse train (O) according to a predetermined sequential pattern, wherein said device is arranged to emit electromagnetic radiation having an intensity that provides that a transfer function with the pulses of electromagnetic radiation from the device as input and the mechanical response of the object detected by the detection device as output is linear and time-invariant, that said signal processing unit (S) is arranged to perform a convolution between a signal representation of said pulse train (O) and a signal representation (V) of said mechanical response (M) and noise (B) detected by the detection device in order to obtain thereby a signal representation (V') of the impulse response from the excited object . a device for emitting electromagnetic radiation; a detection device arranged to detect the mechanical response from an object irradiated by the electromagnetic radiation; a signal processing unit (S) coupled to said detection device and arranged to receive a signal representation of the response from said detection device; wherein said device for emitting electromagnetic radiation is arranged to transmit pulses of a predetermined intensity in a pulse train (O) according to a predetermined sequential pattern; characterized in that said device for emitting electromagnetic radiation is additionally arranged to transmit pulses of a predetermined wavelength in the pulse train (O) according to a predetermined sequential pattern, wherein said device is arranged to emit electromagnetic radiation having an intensity that provides that a transfer function with the pulses of electromagnetic radiation from the device as input and the mechanical response of the object detected by the detection device as output is linear and time-invariant, that said signal processing unit (S) is arranged to perform a convolution between a signal representation of said pulse train (O) and a signal representation (V) of said mechanical response (M) and noise (B) detected by the detection device in order to obtain thereby a signal representation (V') of the impulse response from the excited object .
An apparatus comprising: a vibration generator positioned relative to a surface of an object , wherein the vibration generator is configured to excite the object at a location on the object such that at least a portion of the object vibrates; and an acousto-optical sensor arranged to be coupled to the surface of the portion of the object , wherein the acousto-optical sensor detects a vibratory response generated by the portion of the object in response to excitation of the portion of the object and generates an image of the portion of the object based on the vibratory response , wherein the acousto-optical sensor comprises: a first side that faces the surface of the portion of the object ; and a second side , wherein the image is visually presented at the second side of the acousto-optical sensor ; wherein the vibratory response includes a feature response that is produced when a feature is present within the portion of the object and wherein the image of the portion of the object generated based on the feature response includes an indication that visually represents the feature . a vibration generator positioned relative to a surface of an object , wherein the vibration generator is configured to excite the object at a location on the object such that at least a portion of the object vibrates; and an acousto-optical sensor arranged to be coupled to the surface of the portion of the object , wherein the acousto-optical sensor detects a vibratory response generated by the portion of the object in response to excitation of the portion of the object and generates an image of the portion of the object based on the vibratory response , wherein the acousto-optical sensor comprises: a first side that faces the surface of the portion of the object ; and a second side , wherein the image is visually presented at the second side of the acousto-optical sensor ; a first side that faces the surface of the portion of the object ; and a second side , wherein the image is visually presented at the second side of the acousto-optical sensor ; wherein the vibratory response includes a feature response that is produced when a feature is present within the portion of the object and wherein the image of the portion of the object generated based on the feature response includes an indication that visually represents the feature .
A power distribution network for providing power to multiple optically switchable windows in a building, the power distribution network comprising: a control panel comprising: an enclosure, one or more power supplies connected to a main power supply for the building, and one or more power ports (J1 - J8) connected to the one or more power supplies such that the one or more power supplies are configured to provide power to the one or more power ports, wherein the one or more power supplies and the one or more power ports are disposed in or on the enclosure of the control pane ; a primary power insert line connected to the one or more power ports of the control panel; a secondary power insert line connected to the one or more power ports of the control panel; a trunk line connected to the primary power insert line at a first location of the trunk line and connected to the secondary power insert line at a second location of the trunk line, the second location being different from the first location, the trunk line comprising a plurality of conductors connected to multiple drop lines , each of the multiple drop lines connected to a respective window controller of a plurality of window controllers to provide power to the plurality of window controllers to control one or more of the multiple optically switchable windows; and a plurality of connectors connected between the multiple drop lines and the plurality of conductors of the trunk line, each connector providing an electrical path between the trunk line and a respective one of the drop lines. an enclosure, one or more power supplies connected to a main power supply for the building, and one or more power ports (J1 - J8) connected to the one or more power supplies such that the one or more power supplies are configured to provide power to the one or more power ports, wherein the one or more power supplies and the one or more power ports are disposed in or on the enclosure of the control pane ; a primary power insert line connected to the one or more power ports of the control panel; a secondary power insert line connected to the one or more power ports of the control panel; a trunk line connected to the primary power insert line at a first location of the trunk line and connected to the secondary power insert line at a second location of the trunk line, the second location being different from the first location, the trunk line comprising a plurality of conductors connected to multiple drop lines , each of the multiple drop lines connected to a respective window controller of a plurality of window controllers to provide power to the plurality of window controllers to control one or more of the multiple optically switchable windows; and a plurality of connectors connected between the multiple drop lines and the plurality of conductors of the trunk line, each connector providing an electrical path between the trunk line and a respective one of the drop lines.
A system for attaching passenger seat coverings comprising: a seat cover ; at least one of a seat, a seat cushion, or a seat frame; and a hook and loop fastener structure , comprising: a first part of the hook and loop fastener structure attached to the at least one of the seat, the seat cushion, or the seat frame; a second part of the hook and loop fastener structure attached to the interior surface of the seat cover; and an interface between the first part of the hook and loop fastener structure and the second part of the hook and loop fastener structure, wherein a portion of the interface is configured to restrict sliding of the first part of the hook and loop fastener structure against the second part of the hook and loop fastener structure in a first direction, while permitting sliding of the first part of the hook and loop fastener structure against the second part of the hook and loop fastener structure in a second direction; and characterized in that the first part of the hook and loop fastener structure further comprises an at least one of a color, number, letter or symbol indicating an alignment of the plurality of hooks. a seat cover ; at least one of a seat, a seat cushion, or a seat frame; and a hook and loop fastener structure , comprising: a first part of the hook and loop fastener structure attached to the at least one of the seat, the seat cushion, or the seat frame; a second part of the hook and loop fastener structure attached to the interior surface of the seat cover; and a first part of the hook and loop fastener structure attached to the at least one of the seat, the seat cushion, or the seat frame; a second part of the hook and loop fastener structure attached to the interior surface of the seat cover; and an interface between the first part of the hook and loop fastener structure and the second part of the hook and loop fastener structure, wherein a portion of the interface is configured to restrict sliding of the first part of the hook and loop fastener structure against the second part of the hook and loop fastener structure in a first direction, while permitting sliding of the first part of the hook and loop fastener structure against the second part of the hook and loop fastener structure in a second direction; and characterized in that the first part of the hook and loop fastener structure further comprises an at least one of a color, number, letter or symbol indicating an alignment of the plurality of hooks.
Corner piece to form a corner of a container , whereby the corner piece contains a hollow body that is meant to be applied between the ribs of the container , whereby the hollow body is provided with a wall in which at least one grip opening is applied with a form that can be gripped by external gripping means , whereby during the gripping a part of such external gripping means can be inserted through the grip opening into the hollow body , whereby the corner piece contains a movable coupling element which can at least move between a maximally protruding position, whereby a coupling part of the coupling element protrudes maximally out of the corner piece on the level of the aforementioned grip opening , such that it can serve as a coupling element for coupling to a corner piece of another container which is placed with an opening adjoining against the protruding coupling element , and, a fully retracted position, in which the movable coupling element is completely inside the corner piece and the grip opening as well as the part of the hollow body adjoining this grip opening is left free in so far that the corner piece is put in a position in which it can be gripped by the aforementioned external gripping means characterised in that the movable coupling element can also be put in a partially protruding position, whereby the coupling part of the coupling element only partially extends from the corner piece on the level of the grip opening and thus can serve as guiding element.
Fitting for clamping a table top at different heights to a preferably obliquely aligned column extending through the fitting , the fitting comprising - a first and a second fitting part , each having an abutment section for abutment against the column from opposite directions, - at least one clamping part movable into a release position and a clamping position, and - an actuating element movable relative to the fitting parts for moving the clamping part between the release position and the clamping position, characterized in that a locking mechanism holds the at least one clamping part in the clamping position. - a first and a second fitting part , each having an abutment section for abutment against the column from opposite directions, - at least one clamping part movable into a release position and a clamping position, and - an actuating element movable relative to the fitting parts for moving the clamping part between the release position and the clamping position,
An overvoltage protection arrangement consisting of a horn spark gap accommodated in an insulating housing having a deion chamber for arc quenching, wherein the deion chamber includes a plurality of spaced quenching metal sheets, and a trigger electrode is located in the ignition area of the horn spark gap, furthermore having a varistor electrically connected in series to the horn spark gap, characterized in that inside the housing , a first and a second disconnection apparatus are formed, wherein the first disconnection apparatus is in heat-conducting connection with the varistor, and when a limit temperature is reached or exceeded, releases a spring-loaded slide which interrupts the series connection between varistor and horn spark gap, furthermore, the second disconnection apparatus has a fusible conductor located inside the deion chamber, wherein the fusible conductor holds a spring-loaded disconnector element in a first position and releases this disconnector element upon fusing caused by load in such a manner that the disconnector element adopts a second position, wherein an electrical connection to the trigger electrode is interrupted when the second position is reached, furthermore, a three-pointed, rotatably mounted star or a disc is formed in the housing such that a first star point is carried along by the slide as it moves to interrupt the series connection, and in the same way, a second star point is carried along as the disconnector element moves from the first to the second position, wherein each entraining movement of the star results in a rotation of the star around its axis of rotation with the consequence that a third star point releases a spring-loaded pivotable lever which operates a remote signaling contact and/or a visual fault status display .
Packaging material comprising a coated porous substrate, characterized in that the porous substrate is coated with a molten layer comprising a biopolymer formed by the reaction product of biodegradable polyester and metalloxane, such as siloxane, precursor.
Vehicle arrangement for moving at least one vehicle in a direction of travel (7.1, 7.2) along a route with at least one contact line system and with at least one vehicle , wherein the contact line system is embodied to supply energy from the at least one vehicle moving in a direction of travel (7.1, 7.2) relative to the contact line system and at least one first contact line portion , at least one second contact line portion , which is arranged in the direction of travel behind the first contact line portion , at least one energy source , which is connected to the first contact line portion and the second contact line portion, and at least one electrical component , which at least restricts the current flow in a reverse direction from the second contact line portion to the energy source and permits the same contrary to the reverse direction , wherein the first contact line portion is arranged at a first distance from the second contact line portion and the second contact line portion is arranged at a second distance from the contact line portion which follows in the direction of travel, wherein the second distance is greater than the first distance, characterised in that the vehicle has at least one energy storage device and, that the vehicle is embodied, in the region of the second contact line portion, to raise the voltage in the vehicle by way of the energy storage unit , so that no current flows between the vehicle and contact line system and is embodied to be driveable at least temporarily without connection to the contact line device along the route .