mhurhangee/ep-ind-claims huggingface dataset:
A surgical handpiece system configured to determine a suitable screw length for bone fixation with a bone plate that compensates an initial screw length value based on orientation of the surgical handpiece system during a drilling process, said surgical handpiece system comprising: a surgical handpiece assembly comprising: a handpiece housing, a motor disposed within the handpiece housing and configured to generate torque, a depth measurement extension movably coupled to the handpiece housing, and a sensor configured to generate an orientation signal responsive to orientation of the depth measurement extension; a drill bit configured to be coupled to and receive torque from the motor of the surgical handpiece assembly; and a processor configured to receive the signal from the sensor and determine the suitable screw length for bone fixation based on the signal from the sensor. a surgical handpiece assembly comprising: a handpiece housing, a motor disposed within the handpiece housing and configured to generate torque, a depth measurement extension movably coupled to the handpiece housing, and a sensor configured to generate an orientation signal responsive to orientation of the depth measurement extension; a handpiece housing, a motor disposed within the handpiece housing and configured to generate torque, a depth measurement extension movably coupled to the handpiece housing, and a sensor configured to generate an orientation signal responsive to orientation of the depth measurement extension; a drill bit configured to be coupled to and receive torque from the motor of the surgical handpiece assembly; and a processor configured to receive the signal from the sensor and determine the suitable screw length for bone fixation based on the signal from the sensor.
A base station device comprising: a receiving unit configured to receive an acquisition request for data from a terminal; and a transmitting unit (44c, 45, 46) configured to transmit, when the acquisition request is received by the receiving unit, the requested data to the terminal, wherein the transmitting unit (44c, 45, 46) is further configured, when transmitting the requested data to the terminal by using a first transmission line and when an acquisition request for data that is the same as the requested data is received from another terminal by the receiving unit, to transmit to both the terminal and the other terminal by using the first transmission line, data that has not been transmitted to the terminal among the requested data and to transmit, to the other terminal by using a second transmission line, data that has been transmitted to the terminal among the requested data. a receiving unit configured to receive an acquisition request for data from a terminal; and a transmitting unit (44c, 45, 46) configured to transmit, when the acquisition request is received by the receiving unit, the requested data to the terminal, wherein the transmitting unit (44c, 45, 46) is further configured, when transmitting the requested data to the terminal by using a first transmission line and when an acquisition request for data that is the same as the requested data is received from another terminal by the receiving unit, to transmit to both the terminal and the other terminal by using the first transmission line, data that has not been transmitted to the terminal among the requested data and to transmit, to the other terminal by using a second transmission line, data that has been transmitted to the terminal among the requested data.
A Coriolis mass flow meter, comprising: - process connectors for a fluid medium, - a housing having an inlet and an outlet for the fluid medium, which are disposed along an axis (d); - a pair of U-shaped measuring tubes through which the fluid medium can flow and which are disposed between the inlet and the outlet, each of the measuring tubes spanning a plane; - at least one gusset plate (7, 8), which connects the two U-shaped measuring tubes to each other in the region of a leg of the U such that their position relative to each other is fixed; - a vibration exciter; and - two vibration sensors for the detection of the measuring tube movements, the housing comprising a core region which surrounds the axis (d), and the core region of the housing having an upper plate, characterized in that the housing further comprises an envelope region, which envelops the two U-shaped measuring tubes, the connection between the upper plate and the envelope region being configured in a force-locking manner, and the thickness of the upper plate being such that the resonance frequency of the housing is between 10 and 100 Hz above the highest occurring resonance frequency of the U-shaped measuring tubes, so that a vibration compensation is achieved by the upper plate of the core region, which results in a vibration compensation in the region of the process connectors. - process connectors for a fluid medium, - a housing having an inlet and an outlet for the fluid medium, which are disposed along an axis (d); - a pair of U-shaped measuring tubes through which the fluid medium can flow and which are disposed between the inlet and the outlet, each of the measuring tubes spanning a plane; - at least one gusset plate (7, 8), which connects the two U-shaped measuring tubes to each other in the region of a leg of the U such that their position relative to each other is fixed; - a vibration exciter; and - two vibration sensors for the detection of the measuring tube movements, the housing comprising a core region which surrounds the axis (d), and the core region of the housing having an upper plate, characterized in that the housing further comprises an envelope region, which envelops the two U-shaped measuring tubes, the connection between the upper plate and the envelope region being configured in a force-locking manner, and the thickness of the upper plate being such that the resonance frequency of the housing is between 10 and 100 Hz above the highest occurring resonance frequency of the U-shaped measuring tubes, so that a vibration compensation is achieved by the upper plate of the core region, which results in a vibration compensation in the region of the process connectors.
An image capture device comprising: an image capture unit for capturing an image; and a holding part for holding the image capture unit, wherein the image capture unit includes a part to be supported (40, 41) provided with a short part having a prescribed length, X, and a long part having a longer length, Y, than the short part, the holding part includes: a support part (50a, 50b) which supports the part to be supported (40, 41); and a pressing part (51a, 51b) which is provided facing the support part (50a, 50b) and which generates a pressing force in the direction of the support part (50a, 50b), and when positioned between the support part (50a, 50b) and the pressing part (51a, 51b), the part to be supported (40, 41) can be switched between a first state in which the short part is positioned in a direction linking the support part (50a, 50b) and the pressing part (51a, 51b) and a second state in which the long part is positioned in the direction linking the support part (50a, 50b) and the pressing part (51a, 51b) and that receives a stronger pressing force than in the first state from the pressing part (51a, 51b), wherein the part to be supported (40, 41) pivots when being positioned between the support part (50a, 50b) and the pressing part (51a, 51b) so as to be able to be switched between the first state and the second state. an image capture unit for capturing an image; and a holding part for holding the image capture unit, wherein the image capture unit includes a part to be supported (40, 41) provided with a short part having a prescribed length, X, and a long part having a longer length, Y, than the short part, the holding part includes: a support part (50a, 50b) which supports the part to be supported (40, 41); and a pressing part (51a, 51b) which is provided facing the support part (50a, 50b) and which generates a pressing force in the direction of the support part (50a, 50b), and when positioned between the support part (50a, 50b) and the pressing part (51a, 51b), the part to be supported (40, 41) can be switched between a first state in which the short part is positioned in a direction linking the support part (50a, 50b) and the pressing part (51a, 51b) and a second state in which the long part is positioned in the direction linking the support part (50a, 50b) and the pressing part (51a, 51b) and that receives a stronger pressing force than in the first state from the pressing part (51a, 51b), wherein the part to be supported (40, 41) pivots when being positioned between the support part (50a, 50b) and the pressing part (51a, 51b) so as to be able to be switched between the first state and the second state.
A reflector unit for a bifacial solar module which comprises a module frame and a plurality of bifacial solar cells arranged in the module frame, with a light-reflecting reflector for reflecting light arriving from the front side of the solar module that falls between the solar cells through the solar module onto the reflector back onto the rear side of the solar cells, characterized in that the reflector unit comprises a reflector frame, which supports the reflector and which is attachable to the module frame, with profile elements (9, 10) for a retrofitting attachment of the reflector unit to the rear side of the solar module with a defined clearance of the reflector relative to the solar module, wherein the profile elements (9, 10) of the reflector frame are arranged at least on two opposite sides of the reflector unit, and wherein the reflector frame comprises ventilation slits in at least two profile elements (9, 10) of the reflector frame. the reflector unit comprises a reflector frame, which supports the reflector and which is attachable to the module frame, with profile elements (9, 10) for a retrofitting attachment of the reflector unit to the rear side of the solar module with a defined clearance of the reflector relative to the solar module, wherein the profile elements (9, 10) of the reflector frame are arranged at least on two opposite sides of the reflector unit, and wherein the reflector frame comprises ventilation slits in at least two profile elements (9, 10) of the reflector frame.
A transport chiller unit comprising: a casing configured to be attached to a body front wall of a van body, the casing comprising an inside space in a height direction that increases toward the body front wall; a compressor disposed inside the casing to compress a refrigerant; a vibration-isolating member provided below the compressor; a sub-bracket supporting the vibration-isolating member from a lower side, the compressor being fixed to the sub-bracket via the vibration-isolating member; and a lower portion strength member extending in a horizontal direction as a strength member provided inside the casing, characterized in that the lower portion strength member supports the sub-bracket from the lower side and, the sub-bracket being fixed to the lower portion strength member from the lower side at a fixation position, in that another strength member is provided inside the casing, extending in a vertical direction, and connected to the lower portion strength member, in that the compressor is configured to be disposed in the vicinity of the body front wall and disposed in the vicinity of the other strength member, and in that the lower portion strength member is provided with a guide portion that slides the sub-bracket in the horizontal direction and positions the sub-bracket at the fixation position. a casing configured to be attached to a body front wall of a van body, the casing comprising an inside space in a height direction that increases toward the body front wall; a compressor disposed inside the casing to compress a refrigerant; a vibration-isolating member provided below the compressor; a sub-bracket supporting the vibration-isolating member from a lower side, the compressor being fixed to the sub-bracket via the vibration-isolating member; and a lower portion strength member extending in a horizontal direction as a strength member provided inside the casing, characterized in that the lower portion strength member supports the sub-bracket from the lower side and, the sub-bracket being fixed to the lower portion strength member from the lower side at a fixation position, in that another strength member is provided inside the casing, extending in a vertical direction, and connected to the lower portion strength member, in that the compressor is configured to be disposed in the vicinity of the body front wall and disposed in the vicinity of the other strength member, and in that the lower portion strength member is provided with a guide portion that slides the sub-bracket in the horizontal direction and positions the sub-bracket at the fixation position.
A disc cutter for an agricultural implement, comprising: a disc body; a knife nut coupled to the disc body; a knife comprising a knife opening in which the knife nut is disposed, the knife being configured to rotate about a rotation axis defined by the knife nut; and a spring plate characterized in that the spring plate carries at least two protrusions (361A,361B), the spring plate being biased towards the disc body such that in a first position the spring plate bears on the knife so a plane defined through a portion of the knife extends through the protrusions (361A,361B) until an overload force applied to the knife forces the knife over at least one of the protrusions (361A,361B) and moves the spring plate to a second position. a disc body; a knife nut coupled to the disc body; a knife comprising a knife opening in which the knife nut is disposed, the knife being configured to rotate about a rotation axis defined by the knife nut; and a spring plate characterized in that the spring plate carries at least two protrusions (361A,361B), the spring plate being biased towards the disc body such that in a first position the spring plate bears on the knife so a plane defined through a portion of the knife extends through the protrusions (361A,361B) until an overload force applied to the knife forces the knife over at least one of the protrusions (361A,361B) and moves the spring plate to a second position.
A multi-image display structure comprising: a plurality of substantially triangular optical prisms arranged in a cube-like shape, the triangular prism surfaces being plane-parallel to the top and bottom surfaces of the cube-like shape; characterised in that it further comprises slots between inward-facing quadrangular surfaces of the optical prisms, wherein at least one slot is perpendicular to a side face of the cube-like shape; and one or more picture(s) and/or light-emitting display(s) (17, 23) independently provided in a plurality of said slots. a plurality of substantially triangular optical prisms arranged in a cube-like shape, the triangular prism surfaces being plane-parallel to the top and bottom surfaces of the cube-like shape; characterised in that it further comprises slots between inward-facing quadrangular surfaces of the optical prisms, wherein at least one slot is perpendicular to a side face of the cube-like shape; and one or more picture(s) and/or light-emitting display(s) (17, 23) independently provided in a plurality of said slots.
A digital circuit, comprising: a plurality of digital state registers; and a plurality of digital logic modules coupled to the plurality of digital state registers, each of the plurality of digital logic modules configured to: obtain two or more first values from two or more corresponding digital state registers of the plurality of digital state registers; determine a corresponding second value based upon the two or more first values and a chaotic differential equation; and provide the corresponding second value to set a state of one of the two or more corresponding digital state registers, where each of the plurality of digital logic modules provides the corresponding second value to a different one of the plurality of digital state registers. a plurality of digital state registers; and a plurality of digital logic modules coupled to the plurality of digital state registers, each of the plurality of digital logic modules configured to: obtain two or more first values from two or more corresponding digital state registers of the plurality of digital state registers; determine a corresponding second value based upon the two or more first values and a chaotic differential equation; and provide the corresponding second value to set a state of one of the two or more corresponding digital state registers, where each of the plurality of digital logic modules provides the corresponding second value to a different one of the plurality of digital state registers. obtain two or more first values from two or more corresponding digital state registers of the plurality of digital state registers; determine a corresponding second value based upon the two or more first values and a chaotic differential equation; and provide the corresponding second value to set a state of one of the two or more corresponding digital state registers, where each of the plurality of digital logic modules provides the corresponding second value to a different one of the plurality of digital state registers.
An apparatus for providing reduced-pressure treatment, the apparatus comprising: a piston chamber having a closed end; a piston disposed within the piston chamber and being movable between a charged position and a discharged position; a charging chamber defined between the piston and the closed end; a biasing member configured to bias the piston toward the discharged position; a seal configured to allow fluid to exit the charging chamber as the piston moves toward the charged position and to prevent fluid from entering the charging chamber as the piston moves toward the discharged position; a regulated chamber defined by the piston and the seal; a passage between the regulated chamber and the charging chamber; and a regulator (303, 307) configured to regulate fluid communication through the passage. a piston chamber having a closed end; a piston disposed within the piston chamber and being movable between a charged position and a discharged position; a charging chamber defined between the piston and the closed end; a biasing member configured to bias the piston toward the discharged position; a seal configured to allow fluid to exit the charging chamber as the piston moves toward the charged position and to prevent fluid from entering the charging chamber as the piston moves toward the discharged position; a regulated chamber defined by the piston and the seal; a passage between the regulated chamber and the charging chamber; and a regulator (303, 307) configured to regulate fluid communication through the passage.
Method for conveying waste material in a pneumatic waste transfer system, which transfer system comprises at least two input points of waste material, which can be connected to an input pipe, a material transfer pipe, which is connected to each input pipe, and at least one separating device (20a, 20b), the material is conveyed along the transfer pipe to the at least one separating device (20a, 20b) in which the material is separated from the conveying air, and means for achieving a pressure difference and/or a conveying air current in the transfer pipe at least during conveyance of the material, which means for achieving a pressure difference and/or a conveying air current comprise at least one pump unit, which comprises at least one pump device (51 a, 51 b, 51 c, 51 d), the transfer piping comprising at least one transfer pipe section in which conveying air is circulated, characterized in that in the method at least one transfer pipe section (122; 204, 205, 206, 207, 208, 209) in which conveying air is not circulated, which section is connected to that part of the transfer piping in which conveying air is circulated, at least during the emptying of an input point of the transfer pipe section and during conveyance of the material in the transfer pipe section (122; 204, 205, 206, 207, 208, 209), such that the conveying route of the material in the transfer piping is formed partly from a transfer pipe section (122; 204, 205, 206, 207, 208, 209) in which conveying air is not circulated, and partly from a transfer pipe section in which conveying air is circulated, and in that the transfer pipe section (122; 204, 205, 206, 207, 208, 209) in which conveying air is not circulated is formed to be smaller in its diameter than the transfer pipe section in which conveying air is circulated and that a length of the transfer pipe section (122, 204, 205, 206, 207, 208, 209) in which conveying air is not circulated is formed to be over 100 meters.
A method for cleaning a piece of equipment in place, the method comprising a plurality of cleaning cycles, wherein the plurality of cleaning cycles comprises three or more cleaning cycles, and wherein each cleaning cycle comprises: (a) applying a first cleaning solution from a first supply tank through a first set of nozzles; and (b) applying a second cleaning solution from a second supply tank through a second set of nozzles. (a) applying a first cleaning solution from a first supply tank through a first set of nozzles; and (b) applying a second cleaning solution from a second supply tank through a second set of nozzles.
An infusion assembly for coffee machines, comprising a supporting structure for an infusion chamber within which it is possible to dose, from a dosage assembly, at least two different quantities of ground coffee, further comprising a supporting body for a presser which is designed to press the dosed ground coffee inside said infusion chamber, said supporting body being movable on command between an inactive position, in which it is arranged spaced from said infusion chamber, and an active position, in which it is arranged close to said infusion chamber and wherein said presser presses the dosed ground coffee inside said infusion chamber, said presser being movable with respect to said supporting body along an adjustment direction in order to vary on command the distance between said presser and the bottom of said infusion chamber when said supporting body is in said active position, the movement of said presser with respect to said supporting body along said adjustment direction being performed when said supporting body is in said inactive position, characterized in that said presser is movable with respect to said supporting body along said adjustment direction as a function of the quantity of dosed ground coffee in said infusion chamber.