mhurhangee/ep-ind-claims huggingface dataset:
A pest control and/or detection system comprising: a bait matrix comprising: an electrically conductive bait matrix comprising (a) a plurality of electrically conductive particles; (b) a plurality of electrically conductive particles and a marker material, or (c) an electrically conductive marker material, wherein the bait matrix further comprises at least one carrier material that is at least one of palatable, a phagostimulant and/or consumable and/or displaceable by pests, and the electrically conductive particles or the electrically conductive marker material being randomly interspersed throughout at least a portion of the electrically conductive bait matrix, the at least one carrier material comprising at least one thermoplastic and/or a resin-type material. an electrically conductive bait matrix comprising (a) a plurality of electrically conductive particles; (b) a plurality of electrically conductive particles and a marker material, or (c) an electrically conductive marker material, (a) a plurality of electrically conductive particles; (b) a plurality of electrically conductive particles and a marker material, or (c) an electrically conductive marker material, wherein the bait matrix further comprises at least one carrier material that is at least one of palatable, a phagostimulant and/or consumable and/or displaceable by pests, and the electrically conductive particles or the electrically conductive marker material being randomly interspersed throughout at least a portion of the electrically conductive bait matrix, the at least one carrier material comprising at least one thermoplastic and/or a resin-type material.
A system for controlling the movements of an industrial robot during a work cycle including visiting and performing work on a plurality of workstations in a work cell, characterized in that the system is adapted to receive information about external events during execution of the work cycle, and the system comprises: - a library of predefined workstations, each of the predefined workstation is adapted to a specific type of machine or equipment and includes: ∘ preprogrammed robot code designed for controlling the robot so that it carries out a defined task at the workstation, ∘ an entry point defining the entrance position to the workstation, and ∘ one or more predefined paths to be followed by the robot when carrying out the task at the workstation, - a user interface, adapted to provide information about the predefined workstations and allowing an operator to select one or more of the predefined workstations and to specify a desired part flow between the workstations, - a scheduling unit, adapted to, during execution of the work cycle: ∘ schedule the execution order for the workstations based on a set of workstations selected from said library of predefined workstations, the desired part flow and said information about external events, and ∘ to control the movements of the robot based on the scheduled execution order and the predefined paths for the selected workstations. - a library of predefined workstations, each of the predefined workstation is adapted to a specific type of machine or equipment and includes: ∘ preprogrammed robot code designed for controlling the robot so that it carries out a defined task at the workstation, ∘ an entry point defining the entrance position to the workstation, and ∘ one or more predefined paths to be followed by the robot when carrying out the task at the workstation, ∘ preprogrammed robot code designed for controlling the robot so that it carries out a defined task at the workstation, ∘ an entry point defining the entrance position to the workstation, and ∘ one or more predefined paths to be followed by the robot when carrying out the task at the workstation, - a user interface, adapted to provide information about the predefined workstations and allowing an operator to select one or more of the predefined workstations and to specify a desired part flow between the workstations, - a scheduling unit, adapted to, during execution of the work cycle: ∘ schedule the execution order for the workstations based on a set of workstations selected from said library of predefined workstations, the desired part flow and said information about external events, and ∘ to control the movements of the robot based on the scheduled execution order and the predefined paths for the selected workstations. ∘ schedule the execution order for the workstations based on a set of workstations selected from said library of predefined workstations, the desired part flow and said information about external events, and ∘ to control the movements of the robot based on the scheduled execution order and the predefined paths for the selected workstations.
A developer container configured to be detachably attached to an image forming apparatus main body in a vertical direction relative to the image forming apparatus main body, the developer container comprising: a conveying drive gear configured to be driven by engaging a main body side drive gear at a torque transmitting spot; a convex configured to be inserted into a main body groove, wherein the main body groove is vertically disposed in the apparatus main body; and a concave which is configured such that a main body protrusion can be inserted into the concave; wherein, in a direction of a rotational shaft of the conveying drive gear, the convex is disposed at one side of the torque transmitting spot, as a reference, and the concave is disposed at the other side.
Method for lengthening the running time of a system with a closed fluid circuit, in particular a solar heating system with a solar fluid circuit, wherein at least one accumulation of a quantity of gas of a critical size in the fluid circuit is detected and changed into at least two partial quantities, wherein at least one of the partial quantities is dissolved and/or absorbed in the fluid, in particular the solar fluid, characterized in that, for the changing of the accumulation of a quantity of gas into at least two partial quantities, for the absorbing and/or for the dissolving, a flow rate in the fluid circuit of the system is increased.
An engagement chain comprising at least two chain members (12a, 12b) that are capable of selectively advancing and retreating, wherein the chain members (12a, 12b) are engaged to be integrated with each other by moving in an advancing direction, the chain members (12a, 12b) are disengaged from each other to bifurcate by moving in a retreating direction from an engaged state in which the chain members (12a, 12b) are integrated with each other, wherein each of the chain members (12a, 12b) includes a plurality of link plates (21, 22), each having two pin holes (23a, 23b), and a plurality of coupling pins, each of the chain members (12a, 12b) is configured by pivotally coupling the link plates (21, 22) in series by the coupling pins in the pin holes (23a, 23b), characterised in that the two pin holes (23a, 23b) of each link plate (21, 22) are aligned in an advancing/retreating direction of the chain members (12a, 12b) and are sized differently from each other, each of the coupling pins of each chain member (12a, 12b) is tightly received in the smaller one of the two pin holes (23a, 23b) of one of any adjacent two of the link plates (21, 22) in the advancing/retreating direction and is loosely received in the larger one of the two pin holes (23a, 23b) of the other one of the two adjacent link plates (21, 22), and in a state in which the chain members (12a, 12b) are engaged so as to be integrated with each other, any two of the coupling pins that are opposed to each other in a direction perpendicular to both the advancing/retreating direction and a direction in which each coupling pin extends are in the same received states in the corresponding pin holes (23a, 23b).
A pharmaceutical composition for use in the treatment of an inflammatory disease comprising: a water-soluble N-(2-hydroxypropyl) methacrylamide (HPMA) copolymer and an effective amount of an anti-inflammatory therapeutic agent linked to said water-soluble HPMA copolymer, wherein the water-soluble HPMA copolymer is linked to the anti-inflammatory therapeutic agent via a spacer comprising a hydrazone bond. a water-soluble N-(2-hydroxypropyl) methacrylamide (HPMA) copolymer and an effective amount of an anti-inflammatory therapeutic agent linked to said water-soluble HPMA copolymer, wherein the water-soluble HPMA copolymer is linked to the anti-inflammatory therapeutic agent via a spacer comprising a hydrazone bond.
A blade for a gas turbine, comprising a blade airfoil, the blade wall of which encloses an interior space, wherein, for cooling the blade wall, provision is made in said blade wall for a cooling arrangement (19, 19a - c) which has a radial passage extending in the longitudinal direction of the blade and from which a multiplicity of cooling passages (21, 22), extending in the blade wall, branch in the transverse direction, and from which a multiplicity of film-cooling holes are led to the outside in the transverse direction, characterized in that the distribution or density or periodicity of the film-cooling holes along the radial passage is selected independently of the distribution or density or periodicity of the cooling passages (21, 22) along the radial passage.
A conductive nanoparticle for use in a method of treating cancer, the method comprising: a. introducing the conductive nanoparticle to a target site in the subject; and b. applying a tumor-treating alternating electric field to the target site of the subject, the tumor-treating alternating electric field having a frequency between 50 kHz and 500 kHz, wherein the electric impedance in the target site of the subject to the alternating current is altered. a. introducing the conductive nanoparticle to a target site in the subject; and b. applying a tumor-treating alternating electric field to the target site of the subject, the tumor-treating alternating electric field having a frequency between 50 kHz and 500 kHz,
A lower link of an internal combustion engine, which is included in a piston crank mechanism of the internal combustion engine, - the piston crank mechanism including: an upper link having one end connected to a piston of the internal combustion engine via a piston pin; the lower link connected to an other end of the upper link via an upper pin, and connected to a crank pin of a crankshaft; and a control link having one end swingably supported on an engine body side, and an other end connected to the lower link via a control pin, - the lower link comprising: a crank pin bearing portion rotatably fitted to the crank pin between the upper pin and the control pin, - wherein an oil hole for supplying lubricating oil from an oil supply hole of the crank pin toward a connecting portion between the upper pin and the upper link is formed through the crank pin bearing portion, - wherein the oil hole includes: - a first oil hole linearly extending from an inner peripheral surface of the crank pin bearing portion outwardly in a radial direction; and - a second oil hole linearly extending so as to intersect a distal end portion of the first oil hole, and having one end opened to an outer surface of the lower link as an oil outlet. - the piston crank mechanism including: an upper link having one end connected to a piston of the internal combustion engine via a piston pin; the lower link connected to an other end of the upper link via an upper pin, and connected to a crank pin of a crankshaft; and a control link having one end swingably supported on an engine body side, and an other end connected to the lower link via a control pin, - the lower link comprising: a crank pin bearing portion rotatably fitted to the crank pin between the upper pin and the control pin, - wherein an oil hole for supplying lubricating oil from an oil supply hole of the crank pin toward a connecting portion between the upper pin and the upper link is formed through the crank pin bearing portion, - wherein the oil hole includes: - a first oil hole linearly extending from an inner peripheral surface of the crank pin bearing portion outwardly in a radial direction; and - a second oil hole linearly extending so as to intersect a distal end portion of the first oil hole, and having one end opened to an outer surface of the lower link as an oil outlet. - a first oil hole linearly extending from an inner peripheral surface of the crank pin bearing portion outwardly in a radial direction; and - a second oil hole linearly extending so as to intersect a distal end portion of the first oil hole, and having one end opened to an outer surface of the lower link as an oil outlet.
A method of detecting weakening of adhesion strength between two or more joint surfaces of two or more joint structural elements, comprising: upon receiving from a Load Pin "LP" a shear load value; wherein the LP is inserted through the two or more joint structural elements, perpendicular to the two or more joint surfaces and wherein no shear load is initially sensed by the LP; detecting the weakening of the adhesion strength between the two or more joint surfaces when the received shear load value is above a predetermined threshold. upon receiving from a Load Pin "LP" a shear load value; wherein the LP is inserted through the two or more joint structural elements, perpendicular to the two or more joint surfaces and wherein no shear load is initially sensed by the LP; detecting the weakening of the adhesion strength between the two or more joint surfaces when the received shear load value is above a predetermined threshold.
A method for wireless communication, comprising: determining a cell identifier and a neutral host network, NHN, identifier, NHN-ID, for a first base station that is operating in a first NHN in a shared radio frequency spectrum band; and transmitting the cell identifier and the NHN-ID to a second base station that is operating in the first NHN or a second NHN in the shared radio frequency spectrum band. determining a cell identifier and a neutral host network, NHN, identifier, NHN-ID, for a first base station that is operating in a first NHN in a shared radio frequency spectrum band; and transmitting the cell identifier and the NHN-ID to a second base station that is operating in the first NHN or a second NHN in the shared radio frequency spectrum band.
A thread element made of plastic comprising an axial piece having a central axis and a thread turn of an outer thread circulating around the central axis in several windings, wherein the outer thread is adapted to form a counter-thread when being screwed into a receiving opening of a support part made of plastic, characterized in that a plurality of adjacent windings are interrupted at least over a part region of the axial piece by at least two chip flutes extending parallel to the central axis, so that each interrupted winding comprises at least one cutting web and one inhibition web in which a radial extension of the cutting web is larger than a radial extension of the inhibition web, wherein a core thickness (D K) of the axial piece perpendicular to the central axis of the outer thread is constant at least in the part region of the axial piece outside the longitudinal flutes.
A wellbore communication system comprising: a downhole tool having a downhole transmitter; a sensing element for location at surface and coupled to a surface receiver; and an insulated slickline having an electrically conductive core surrounded by an insulating coating, wherein the slickline is attached to the downhole tool and coupled to the downhole transmitter, and the sensing element and the slickline are capacitively coupled so as to permit relative movement therebetween and so as to permit an electric field to extend from the core of the slickline to the sensing element through the insulating coating of the slickline for transmission of information from the downhole transmitter to the surface receiver via the slickline and the sensing element, wherein the slickline extends through the sensing element, wherein the sensing element extends along a direction of the slickline, wherein the sensing element defines an elongated channel through which the slickline extends, and wherein a length of the elongated channel is greater than a diameter of the slickline. a downhole tool having a downhole transmitter; a sensing element for location at surface and coupled to a surface receiver; and an insulated slickline having an electrically conductive core surrounded by an insulating coating, wherein the slickline is attached to the downhole tool and coupled to the downhole transmitter, and the sensing element and the slickline are capacitively coupled so as to permit relative movement therebetween and so as to permit an electric field to extend from the core of the slickline to the sensing element through the insulating coating of the slickline for transmission of information from the downhole transmitter to the surface receiver via the slickline and the sensing element, wherein the slickline extends through the sensing element, wherein the sensing element extends along a direction of the slickline, wherein the sensing element defines an elongated channel through which the slickline extends, and wherein a length of the elongated channel is greater than a diameter of the slickline.
A method for wideband short-range wireless communication, the method comprising: determining a change of a relay operation type based on a link quality between a source node and a relay node, a link quality between the relay node and the destination node, and a link quality between the source node and the destination node, whereby relay operations include a link switching type (340, 440, 510) and a link cooperating type (310, 410, 580), wherein the link switching type corresponds to a scheme of transmitting a data frame using one of a direct link and a relay link, and transmitting a data frame using the other link by switching to the other link when a link being used has a problem, and the link cooperating type corresponds to a scheme of transmitting a data frame using both of the direct link and the relay link; transmitting a relay operation change request message (331, 333, 431, 571, 573) in response to a determination of the change of the relay operation type; and receiving an ROC response message (335, 337, 433, 575, 577) corresponding to the ROC request message. determining a change of a relay operation type based on a link quality between a source node and a relay node, a link quality between the relay node and the destination node, and a link quality between the source node and the destination node, whereby relay operations include a link switching type (340, 440, 510) and a link cooperating type (310, 410, 580), wherein the link switching type corresponds to a scheme of transmitting a data frame using one of a direct link and a relay link, and transmitting a data frame using the other link by switching to the other link when a link being used has a problem, and the link cooperating type corresponds to a scheme of transmitting a data frame using both of the direct link and the relay link; transmitting a relay operation change request message (331, 333, 431, 571, 573) in response to a determination of the change of the relay operation type; and receiving an ROC response message (335, 337, 433, 575, 577) corresponding to the ROC request message.
A printer apparatus comprising a printer unit that includes a thermal head, a first module including a motor, and a second module including a platen roller and a rotating body (60, 72); wherein the rotating body (60, 72) includes a torque limiter; a printed paper roll shaft that rolls up printed paper that is drawn from a heat sensitive paper roll and is carried through the printer unit, the printer apparatus being characterized by comprising: a first chassis that includes a heat sensitive paper roll accommodating portion that accommodates the heat sensitive paper roll, and a first mount portion to which the first module is mounted; and a second chassis that is configured to rotate with respect to the first chassis to be opened/closed, the second chassis including a second mount portion to which the second module is mounted, a rotation transmitting mechanism that transmits a rotation of the rotating body to the printed paper roll shaft, and a printed paper roll accommodating portion that accommodates a printed paper roll that is created by rolling the printed paper around the printed paper roll shaft; wherein when the second chassis is closed, the heat sensitive paper roll accommodating portion is closed, the second module is coupled to the first module, the platen roller is rotated by the motor, the rotating body (60, 72) is rotated by the motor, and the printed paper roll shaft is rotated by the motor via the rotating body (60, 72) including the torque limiter and via the rotation transmitting mechanism for rolling up the printed paper to form the printed paper roll. a first chassis that includes a heat sensitive paper roll accommodating portion that accommodates the heat sensitive paper roll, and a first mount portion to which the first module is mounted; and a second chassis that is configured to rotate with respect to the first chassis to be opened/closed, the second chassis including a second mount portion to which the second module is mounted, a rotation transmitting mechanism that transmits a rotation of the rotating body to the printed paper roll shaft, and a printed paper roll accommodating portion that accommodates a printed paper roll that is created by rolling the printed paper around the printed paper roll shaft; wherein when the second chassis is closed, the heat sensitive paper roll accommodating portion is closed, the second module is coupled to the first module, the platen roller is rotated by the motor, the rotating body (60, 72) is rotated by the motor, and the printed paper roll shaft is rotated by the motor via the rotating body (60, 72) including the torque limiter and via the rotation transmitting mechanism for rolling up the printed paper to form the printed paper roll.
Baking oven with an oven and supply lines as well as a plurality of baking chambers (2,3,4,5), which are each provided with a first heating element for the top heat and a second heating element for the bottom heat, and each baking chamber (2, 3, 4, 5) is assigned at least one temperature sensor, which each co-operate with a control unit, and each heating element (6,7) is assigned an actuator, which are connected to the control unit and via which the heating elements (6, 7) are able to be activated and deactivated, as a function of the set temperature predetermined for each heating element (6, 7) and that of the actual temperature determined by the corresponding temperature sensor, the first heating elements and the second heating elements being channels, which are disposed above and below the respective baking chamber (2, 3, 4, 5), and through which heating channels hot flue gas is able to be conducted, which is able to be generated in an oven for fossil fuels and is able to be conducted via supply lines into the channels, the actuators being closing elements, by means of which the channels are closable with respect to the supply lines, and the closing elements being slide valves, characterized in that heating energy able to be supplied to the baking oven is so large that always only a part of the first heating elements and second heating elements are able to be activated together, while the other first heating elements and second heating elements are deactivated, and in that those heating elements (6, 7) are activated where the difference between the set temperature and the actual temperature exceeds a predefined value range, and in that the slide valves are disposed in such a way that the channels of respectively a part of the baking chambers (2, 3, 4, 5) of the baking oven are opened and the channels of the respectively other baking chambers (2, 3, 4, 5) are closed.