mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for purifying dimethyl carbonate using pervaporation, comprising: an atmospheric distillation column and a high pressure distillation column distilling a mixture containing dimethyl carbonate and methanol and separating dimethyl carbonate from the mixture; and a pervaporation membrane module disposed between the atmospheric distillation column and the high pressure distillation column and allowing for permeation of the methanol to separate the methanol from the mixture, wherein the atmospheric distillation column supplies an amount of the mixture recovered from an upper portion of the atmospheric distillation column to the pervaporation membrane module. an atmospheric distillation column and a high pressure distillation column distilling a mixture containing dimethyl carbonate and methanol and separating dimethyl carbonate from the mixture; and a pervaporation membrane module disposed between the atmospheric distillation column and the high pressure distillation column and allowing for permeation of the methanol to separate the methanol from the mixture, wherein the atmospheric distillation column supplies an amount of the mixture recovered from an upper portion of the atmospheric distillation column to the pervaporation membrane module.
A pressing device for pressing meat products, in particular frozen and/or partly frozen meat products, preferably fresh meat products and/or bacon, comprising a pressing chamber which extends along a longitudinal direction and into which a product to be pressed can be inserted, wherein the pressing chamber comprises at least one counter-element and a pressing means which is movable by a drive, wherein the pressing means can be moved from a starting position along a pressing direction towards the counter-element into an end position in order to compress the product, and wherein the drive is configured to drive at least one eccentric cam, which is rotatable about an axis of rotation, in order to move the pressing means from the starting position into the end position, wherein the pressing means can be moved from the starting position into the end position by a rotation of the eccentric cam of more than 90 degrees, in particular more than 120 degrees, preferably about 180 degrees, characterized in that the eccentric cam is connected to at least one further eccentric cam via a coupling rod, wherein the eccentric cam and the further eccentric cam engage at the pressing means at points of engagement (89, 91) spaced apart transversely to the pressing direction. wherein the pressing chamber comprises at least one counter-element and a pressing means which is movable by a drive, wherein the pressing means can be moved from a starting position along a pressing direction towards the counter-element into an end position in order to compress the product, and wherein the drive is configured to drive at least one eccentric cam, which is rotatable about an axis of rotation, in order to move the pressing means from the starting position into the end position, wherein the pressing means can be moved from the starting position into the end position by a rotation of the eccentric cam of more than 90 degrees, in particular more than 120 degrees, preferably about 180 degrees, characterized in that the eccentric cam is connected to at least one further eccentric cam via a coupling rod, wherein the eccentric cam and the further eccentric cam engage at the pressing means at points of engagement (89, 91) spaced apart transversely to the pressing direction.
A heater assembly comprising: a flow guide defining a continuous geometric helicoid disposed about a longitudinal axis of the heater assembly, the flow guide defining a predetermined pattern of perforations that extend in a longitudinal direction through a first longitudinal length of the geometric helicoid, the longitudinal direction being parallel to the longitudinal axis; and a plurality of electrical resistance heating elements extending through the perforations, characterized in that at least one electrical resistance heating element of the plurality of electrical resistance heating elements has a first region with a first watt density and a second region with a second watt density, the second region being located farther in the longitudinal direction than the first region, the second watt density being less than the first watt density. a flow guide defining a continuous geometric helicoid disposed about a longitudinal axis of the heater assembly, the flow guide defining a predetermined pattern of perforations that extend in a longitudinal direction through a first longitudinal length of the geometric helicoid, the longitudinal direction being parallel to the longitudinal axis; and a plurality of electrical resistance heating elements extending through the perforations, characterized in that at least one electrical resistance heating element of the plurality of electrical resistance heating elements has a first region with a first watt density and a second region with a second watt density, the second region being located farther in the longitudinal direction than the first region, the second watt density being less than the first watt density.
An ultrasound system, comprising: an ultrasound data acquiring unit configured to transmit ultrasound signals to a target object, receive ultrasound echo signals reflected there from, thereby acquiring a plurality of ultrasound data, and assign different synchronization, Sync, numbers to the plurality of ultrasound data; a storing unit to store the plurality of ultrasound data to each of which a Sync number is uniquely assigned; a processing unit coupled to the ultrasound data acquiring unit and the storing unit, and configured to form a Doppler mode image based on the plurality of ultrasound data; an output unit to display the Doppler mode image on a screen; and a user input unit configured to receive a user instruction for setting on the Doppler mode image a region for forming a Doppler sound; wherein the processing unit being further configured to detect a Sync number assigned to the Doppler mode image corresponding to the region, extract ultrasound data corresponding to the detected Sync number from the storing unit and form the Doppler sound corresponding to the region based on the extracted ultrasound data, and the output unit is configured to output the Doppler sound corresponding to the region, and display the region on the Doppler mode image and a line representing the position of the Doppler sound currently being outputted in the region. an ultrasound data acquiring unit configured to transmit ultrasound signals to a target object, receive ultrasound echo signals reflected there from, thereby acquiring a plurality of ultrasound data, and assign different synchronization, Sync, numbers to the plurality of ultrasound data; a storing unit to store the plurality of ultrasound data to each of which a Sync number is uniquely assigned; a processing unit coupled to the ultrasound data acquiring unit and the storing unit, and configured to form a Doppler mode image based on the plurality of ultrasound data; an output unit to display the Doppler mode image on a screen; and a user input unit configured to receive a user instruction for setting on the Doppler mode image a region for forming a Doppler sound; wherein the processing unit being further configured to detect a Sync number assigned to the Doppler mode image corresponding to the region, extract ultrasound data corresponding to the detected Sync number from the storing unit and form the Doppler sound corresponding to the region based on the extracted ultrasound data, and the output unit is configured to output the Doppler sound corresponding to the region, and display the region on the Doppler mode image and a line representing the position of the Doppler sound currently being outputted in the region.
A method of operation of a transmitting node in a wireless network, comprising: transmitting a feedback restriction indicator to a receiving node, the feedback restriction indicator being an unused bit resource in one or more instances of a control channel that is indicative of one or more desired restrictions on parameters to be evaluated by the receiving node for a feedback report to be provided from the receiving node, the unused bit resource being a bit resource in the one or more instances of the control channel that is not used to convey one or more transmission parameters that are to be applied by the transmitting node in transmitting data to the receiving node; and receiving the feedback report from the receiving node, the feedback report being limited according to the feedback restriction indicator; wherein the unused bit resource is one of two or more unused bit resources each being indicative of one or more different restrictions on the parameters to be evaluated by the receiving node for the feedback report; characterized by selecting one or more desired restrictions on the parameters to be evaluated by the receiving node for the feedback report based on one or more selection criteria; wherein transmitting the feedback restriction indicator comprises transmitting one of the two or more unused bit patterns that corresponds to the one or more desired restrictions as the feedback restriction indicator; wherein the one or more selection criteria comprise at least one of a group consisting of: received signal quality at the receiving node, a speed of the receiving node, statistics of usage of feedback reports by the transmitting node, statistics of feedback reports from the receiving node, traffic load, load at the receiving node due to parallel procedures, battery life at the receiving node, and power consumption at the receiving node. transmitting a feedback restriction indicator to a receiving node, the feedback restriction indicator being an unused bit resource in one or more instances of a control channel that is indicative of one or more desired restrictions on parameters to be evaluated by the receiving node for a feedback report to be provided from the receiving node, the unused bit resource being a bit resource in the one or more instances of the control channel that is not used to convey one or more transmission parameters that are to be applied by the transmitting node in transmitting data to the receiving node; and receiving the feedback report from the receiving node, the feedback report being limited according to the feedback restriction indicator; selecting one or more desired restrictions on the parameters to be evaluated by the receiving node for the feedback report based on one or more selection criteria; wherein transmitting the feedback restriction indicator comprises transmitting one of the two or more unused bit patterns that corresponds to the one or more desired restrictions as the feedback restriction indicator;
A removable mobile device connection apparatus comprising: a folded first material configured into a geometric shape comprising a first layer and a second layer; wherein the first layer comprises a top surface, a bottom surface, and a bottom edge, and the second layer is located below the first layer and comprises a top surface, a bottom surface, and a bottom edge; a strengthening material located between the first layer and the second layer and configured to create a connection point extending from the center of the bottom edges of the first and second layer (110, 112); and a second material configured into a geometric shape comprising a third layer and located beneath the second layer, the second material having a temporary cling property to removably adhere the second material to a back surface of a mobile device without the requirement for adhesion to the mobile device with an adhesive; wherein the bottom surface of the first layer is adhered by a first adhesive to the strengthening material and also to the top surface of the second layer, and the bottom surface of the second layer is adhered by a second adhesive to the top surface of the third layer. a folded first material configured into a geometric shape comprising a first layer and a second layer; wherein the first layer comprises a top surface, a bottom surface, and a bottom edge, and the second layer is located below the first layer and comprises a top surface, a bottom surface, and a bottom edge; a strengthening material located between the first layer and the second layer and configured to create a connection point extending from the center of the bottom edges of the first and second layer (110, 112); and a second material configured into a geometric shape comprising a third layer and located beneath the second layer, the second material having a temporary cling property to removably adhere the second material to a back surface of a mobile device without the requirement for adhesion to the mobile device with an adhesive; wherein the bottom surface of the first layer is adhered by a first adhesive to the strengthening material and also to the top surface of the second layer, and the bottom surface of the second layer is adhered by a second adhesive to the top surface of the third layer.
A control unit (121, 123; 221, 223), comprising: a panel (127; 227; 427) having a face (129; 229; 329; 429) and an opposite back (131; 231); a case (133; 233) attached to the back (131; 231) of the panel (127; 227; 427); a plurality of first primary flight display inputs (135; 235; 335; 435) on the face (129; 229; 329; 429) of the panel (127; 227; 427), the plurality of first primary flight display inputs (135; 235; 335; 435) being configured to receive physical inputs for the control of a first primary flight display (103, 203); a plurality of second primary flight display inputs (137; 237; 337; 437) on the face (129; 229; 329; 429) of the panel (127; 227; 427), the plurality of second primary flight display inputs (137; 237; 337; 437) being configured to receive physical inputs for the control of a second primary flight display (105, 205); a shared input disposed between the plurality of first primary flight display inputs and the plurality of second primary flight display inputs, the shared input being configured to receive physical inputs for the control of both the first primary fight display and the second primary flight display; and a plurality of flight control inputs (139; 239; 339; 439) on the face (129; 229; 329; 429) of the panel (127; 227; 427), the plurality of flight control inputs (139; 239; 339; 439) being configured to receive physical inputs for the control of automated flight behavior. a panel (127; 227; 427) having a face (129; 229; 329; 429) and an opposite back (131; 231); a case (133; 233) attached to the back (131; 231) of the panel (127; 227; 427); a plurality of first primary flight display inputs (135; 235; 335; 435) on the face (129; 229; 329; 429) of the panel (127; 227; 427), the plurality of first primary flight display inputs (135; 235; 335; 435) being configured to receive physical inputs for the control of a first primary flight display (103, 203); a plurality of second primary flight display inputs (137; 237; 337; 437) on the face (129; 229; 329; 429) of the panel (127; 227; 427), the plurality of second primary flight display inputs (137; 237; 337; 437) being configured to receive physical inputs for the control of a second primary flight display (105, 205); a shared input disposed between the plurality of first primary flight display inputs and the plurality of second primary flight display inputs, the shared input being configured to receive physical inputs for the control of both the first primary fight display and the second primary flight display; and a plurality of flight control inputs (139; 239; 339; 439) on the face (129; 229; 329; 429) of the panel (127; 227; 427), the plurality of flight control inputs (139; 239; 339; 439) being configured to receive physical inputs for the control of automated flight behavior.
A system, comprising: a memory; and at least one hardware processor coupled to the memory, the system hosting a redundant tracking system having a set of tracking subsystems (604A-C), a disruption detection module and a rendering module for rendering a virtual object in conjunction with three-dimensional space image data captured within a real world camera view, the redundant tracking system causing the at least one hardware processor to perform operations comprising: rendering a virtual object to appear at a position in a three-dimensional space captured within the real world camera view, the position in the three-dimensional space being based on a reference surface detected in the three-dimensional space image data; tracking, by a first tracking subsystem from among the set of tracking subsystems, the virtual object at the position in the three-dimensional space using tracking indicia; detecting, by the disruption detection module, an interruption of the tracking indicia; and in response to detecting the interruption of the tracking indicia, tracking the virtual object at the position in the three-dimensional space via a second tracking subsystem from among the set of tracking subsystems. a memory; and at least one hardware processor coupled to the memory, the system hosting a redundant tracking system having a set of tracking subsystems (604A-C), a disruption detection module and a rendering module for rendering a virtual object in conjunction with three-dimensional space image data captured within a real world camera view, the redundant tracking system causing the at least one hardware processor to perform operations comprising: rendering a virtual object to appear at a position in a three-dimensional space captured within the real world camera view, the position in the three-dimensional space being based on a reference surface detected in the three-dimensional space image data; tracking, by a first tracking subsystem from among the set of tracking subsystems, the virtual object at the position in the three-dimensional space using tracking indicia; detecting, by the disruption detection module, an interruption of the tracking indicia; and in response to detecting the interruption of the tracking indicia, tracking the virtual object at the position in the three-dimensional space via a second tracking subsystem from among the set of tracking subsystems. rendering a virtual object to appear at a position in a three-dimensional space captured within the real world camera view, the position in the three-dimensional space being based on a reference surface detected in the three-dimensional space image data; tracking, by a first tracking subsystem from among the set of tracking subsystems, the virtual object at the position in the three-dimensional space using tracking indicia; detecting, by the disruption detection module, an interruption of the tracking indicia; and in response to detecting the interruption of the tracking indicia, tracking the virtual object at the position in the three-dimensional space via a second tracking subsystem from among the set of tracking subsystems.
A steering device comprising: a male shaft capable of transferring rotation of a steering wheel; a male serration formed on the outer periphery of the male shaft; a female shaft fitted onto the male shaft; and a female serration formed on the inner periphery of the female shaft to be brought into engagement with the male serration in such a way as to be relatively movable in the axial direction of the female serration, and to cause a rotation torque to be transferable, wherein an impact-energy absorption part (40, 50) formed in such a way as to surround the whole circumference of the outer periphery of the male shaft, having a predetermined length in the axial direction of the male serration, an outside diameter of the impact-energy absorption part (40, 50) being larger in size than a diameter of a circle of a serrated edge of the female serration, so as to cause the serrated edge of the female serration to be butted against the impact-energy absorption part (40, 50), thereby absorbing impact energy, is provided in a region where, upon the male shaft undergoing relative contraction against the female male shaft at the time of a vehicle collision, the male serration comes into engagement with the female serration in the middle of the contraction, characterised in that an outer peripheral surface of the female shaft is pressed inward in the radial direction thereof to thereby cause the female shaft, and the male shaft to undergo plastic deformation into the shape of an ellipse in cross-section such that an absorption amount of the impact energy will be at a predetermined magnitude. a male shaft capable of transferring rotation of a steering wheel; a male serration formed on the outer periphery of the male shaft; a female shaft fitted onto the male shaft; and a female serration formed on the inner periphery of the female shaft to be brought into engagement with the male serration in such a way as to be relatively movable in the axial direction of the female serration, and to cause a rotation torque to be transferable, wherein an impact-energy absorption part (40, 50) formed in such a way as to surround the whole circumference of the outer periphery of the male shaft, having a predetermined length in the axial direction of the male serration, an outside diameter of the impact-energy absorption part (40, 50) being larger in size than a diameter of a circle of a serrated edge of the female serration, so as to cause the serrated edge of the female serration to be butted against the impact-energy absorption part (40, 50), thereby absorbing impact energy, is provided in a region where, upon the male shaft undergoing relative contraction against the female male shaft at the time of a vehicle collision, the male serration comes into engagement with the female serration in the middle of the contraction, characterised in that an outer peripheral surface of the female shaft is pressed inward in the radial direction thereof to thereby cause the female shaft, and the male shaft to undergo plastic deformation into the shape of an ellipse in cross-section such that an absorption amount of the impact energy will be at a predetermined magnitude.