mhurhangee/ep-ind-claims huggingface dataset:
An atherectomy device, comprising: an elongate shaft (30, 130) having a proximal end region, a distal end region (32, 132) and a lumen extending therein; a cutting member (28, 128) positioned adjacent the distal end region (32, 132) of the elongate shaft (30, 130), wherein the cutting member (28, 128) is radially expandable, said cutting member (28, 128) comprising one or more blade members (48, 148); a sizing member (26, 126) positioned adjacent the cutting member (28, 128), wherein the sizing member (26, 126) is radially expandable, and wherein radial expansion of the cutting member (28, 128) is limited by radial expansion of the sizing member (26, 126), said sizing member including one or more struts (46, 146), each strut (46, 146) being associated with a corresponding blade member (48, 148), wherein as one of the one or more struts (46, 146) moves radially outward, the associated blade member (48, 148) moves radially outward an equivalent amount and/or as one of the one or more struts (46, 146) moves radially inward, the associated blade member (48, 148) moves radially inward an equivalent amount, such that a radial offset defined as the difference between an outermost radial extent (56, 156) of the strut (46, 146) and an outermost radial extent (58, 158) of the blade member (48, 148) is constant and larger than zero. an elongate shaft (30, 130) having a proximal end region, a distal end region (32, 132) and a lumen extending therein; a cutting member (28, 128) positioned adjacent the distal end region (32, 132) of the elongate shaft (30, 130), wherein the cutting member (28, 128) is radially expandable, said cutting member (28, 128) comprising one or more blade members (48, 148); a sizing member (26, 126) positioned adjacent the cutting member (28, 128), wherein the sizing member (26, 126) is radially expandable, and wherein radial expansion of the cutting member (28, 128) is limited by radial expansion of the sizing member (26, 126), said sizing member including one or more struts (46, 146), each strut (46, 146) being associated with a corresponding blade member (48, 148), wherein as one of the one or more struts (46, 146) moves radially outward, the associated blade member (48, 148) moves radially outward an equivalent amount and/or as one of the one or more struts (46, 146) moves radially inward, the associated blade member (48, 148) moves radially inward an equivalent amount, such that a radial offset defined as the difference between an outermost radial extent (56, 156) of the strut (46, 146) and an outermost radial extent (58, 158) of the blade member (48, 148) is constant and larger than zero.
A method for purifying or deodorizing gas, comprising bringing said gas into contact with a reactive matrix comprising: - from 15% to 80% by weight of dry matter of SiO 2; and - from 1% to 40% by weight of dry matter of CaO; the moisture content of said matrix, that is to say the ratio of the weight of water, excluding crystallization water, contained in the matrix to the total weight thereof, ranging from 20% to 80%. - from 15% to 80% by weight of dry matter of SiO 2; and - from 1% to 40% by weight of dry matter of CaO;
A system for practicing techniques of operative dentistry, said system comprising at least one jaw model and at least one tooth model for practicing techniques of operative dentistry, the jaw model and the tooth model being manufactured by means of 3D-printing and modeled after a naturally grown human jaw and tooth, respectively, wherein the jaw model has at least two sections (4, 5) of different hardness and comprises at least one receptacle for removably receiving the at least one tooth model, wherein the tooth model has at least two sections of different hardness and is configured to be removably inserted in the receptacle of the jaw model, wherein the tooth model comprises a tooth stump or a tooth root, wherein the jaw model comprises a core and a mask, the core replicating a bone structure of the naturally grown jaw and the mask replicating a tissue structure surrounding the bone structure of the naturally grown human jaw, wherein the core is embedded in the mask in a form-fit manner, wherein the mask has a lower hardness than the core, and wherein the core and the mask at least partially form the at least one receptacle, so as to removably receive the at least one tooth model by force-fit and/or form-fit, wherein the receptacle has the negative shape of the tooth stump or the tooth root.
A method for detecting and tracking a feature of a web of packaging material, using a first capacitor placed at a distance (d) from the web of packaging material, the method comprises; feeding a section of the web of packaging material to a first position (p), so that the section influences a dielectric property of the first capacitor, measuring, at a point of time (t), a capacitance of the first capacitor, determining the feature of the section passing the first capacitor at the point of time (t), based on the capacitance, tracking the feature, using the point of time (t) of the measurement, and adapting settings of a device of a roll fed packaging machine based on the presence of the feature. feeding a section of the web of packaging material to a first position (p), so that the section influences a dielectric property of the first capacitor, measuring, at a point of time (t), a capacitance of the first capacitor, determining the feature of the section passing the first capacitor at the point of time (t), based on the capacitance, tracking the feature, using the point of time (t) of the measurement, and adapting settings of a device of a roll fed packaging machine based on the presence of the feature.
Brake caliper for a disc brake of a vehicle, comprising: - a first half-caliper and a second half-caliper separable from the first half-caliper; - means for reciprocal connection of said first half-caliper and second half-caliper; - a bridge element connectable in a removable manner to the two half-calipers (2,3) comprising a first end and a second end axially opposite to the first end, wherein said first end of said bridge element is connectable to said first half-caliper by means of a first screw and said second end of said bridge element is connectable to said second half-caliper by means of a second screw; said bridge element is provided with a substantially rectilinear axis; said first end and second end of the bridge element respectively form a first threaded seat into which said first screw can be screwed and a second threaded seat into which said second screw can be screwed; said first threaded seat and second threaded seat of the bridge element are substantially coaxial to its said axis characterised in that said first half-caliper and second half-caliper respectively comprise a first and a second positioning seats adapted to accommodate at least partially said first and second end of the bridge element, and said first positioning seat forms a shape-coupling with said first end of the bridge element and said second positioning seat forms a shape-coupling with said second end of the bridge element, in such a manner to prevent rotations between said bridge Xelement and said half-calipers (2,3). - a first half-caliper and a second half-caliper separable from the first half-caliper; - means for reciprocal connection of said first half-caliper and second half-caliper; - a bridge element connectable in a removable manner to the two half-calipers (2,3) comprising a first end and a second end axially opposite to the first end,
Transport system, having a horizontal transport installation which has a horizontal stator by means of which at least one horizontal carrier is movable in a horizontal plane, and having a vertical transport installation which has a vertical stator by means of which at least one vertical carrier is movable in a vertical plane, wherein at least one mounting for receiving a payload is provided, characterized in that the mounting has first engagement means and separate second engagement means, wherein the mounting by way of the first engagement means thereof is able to be brought to engage in a form-fitting manner with the horizontal carrier, and wherein the mounting by way of the second engagement means thereof is able to be brought to engage in a form-fitting manner with the vertical carrier, wherein the two form-fitting engagements are designed such that the mounting is supported on the respective carrier (4, 16) in relation to gravity, and is secured in relation to horizontal displacement.
A heating device for heating a fluid, particularly in a vehicle or vessel, comprising: - a housing having a housing wall and a fluid inlet and a fluid outlet; connected via at least two separate fluid channels (6a,b; 6c-e); - said fluid channels being separated by walls (12a,b), end walls (5a,b) and a bottom portion which form a chamber (13; 13a,b); - said chamber (13; 13a,b) having an opening towards the housing outside; - at least one heating element (7; 7') received in the chamber (13; 13a,b); - said walls (12a,b) comprising a heat conducting material; - said bottom portion being recessed in the housing wall. - a housing having a housing wall and a fluid inlet and a fluid outlet; connected via at least two separate fluid channels (6a,b; 6c-e); - said fluid channels being separated by walls (12a,b), end walls (5a,b) and a bottom portion which form a chamber (13; 13a,b); - said chamber (13; 13a,b) having an opening towards the housing outside; - at least one heating element (7; 7') received in the chamber (13; 13a,b); - said walls (12a,b) comprising a heat conducting material; - said bottom portion being recessed in the housing wall.
A method for classifying an unknown part, said method comprising: - acquiring a broadband frequency response for a plurality of parts in a training set of parts, the training set of parts including a plurality of non-flawed parts and a plurality of flawed parts; - performing a statistical analysis on the broadband frequency responses to form a plurality of part subsets, the plurality of part subsets including a plurality of subsets of non-flawed parts and a plurality of subsets of flawed parts; - utilizing the plurality of part subsets to form a single blended subset that includes a plurality of different resonant response frequencies; and - utilizing the single blended subset to test an unknown part, wherein for testing the unknown part, the plurality of different resonant response frequencies of the single blended subset are utilized to determine whether the unknown part is either a defective part or a non-defective part; wherein the plurality of part subsets are formed by using the broadband frequency responses for each of the parts in the training set to identify a plurality of parts in the training set that each generated a frequency response at substantially the same frequency; and wherein, for forming the single blended subset, each of the parts in each of the plurality of subsets of non-flawed parts are compared to each of the parts located in the plurality of subsets of flawed parts to identify resonant peaks suitable to distinguish between the non-flawed parts and the flawed parts when testing an unknown part. - acquiring a broadband frequency response for a plurality of parts in a training set of parts, the training set of parts including a plurality of non-flawed parts and a plurality of flawed parts; - performing a statistical analysis on the broadband frequency responses to form a plurality of part subsets, the plurality of part subsets including a plurality of subsets of non-flawed parts and a plurality of subsets of flawed parts; - utilizing the plurality of part subsets to form a single blended subset that includes a plurality of different resonant response frequencies; and - utilizing the single blended subset to test an unknown part, wherein for testing the unknown part, the plurality of different resonant response frequencies of the single blended subset are utilized to determine whether the unknown part is either a defective part or a non-defective part;
A system for use with a medical device configured for insertion within a patient, comprising: a signal generator configured to apply a plurality of drive signals, each having a unique frequency, across different pairs of electrodes of a medical device having a plurality of electrodes, wherein the plurality of drive signals are simultaneously applied; a measurement circuit configured to measure responses of the plurality of electrodes to the drive signals and generate a series of impedance values for the plurality of electrodes of the medical device; a contact assessment module configured to, for each electrode, compare a subsequent impedance value for an electrode to a baseline impedance value for the electrode and generate an output corresponding to a proximity of the electrode relative to tissue if the subsequent impedance value is greater than the baseline impedance value; and a display for displaying proximities of the electrodes relative to the tissue based on outputs received from the contact assessment module. a signal generator configured to apply a plurality of drive signals, each having a unique frequency, across different pairs of electrodes of a medical device having a plurality of electrodes, wherein the plurality of drive signals are simultaneously applied; a measurement circuit configured to measure responses of the plurality of electrodes to the drive signals and generate a series of impedance values for the plurality of electrodes of the medical device; a contact assessment module configured to, for each electrode, compare a subsequent impedance value for an electrode to a baseline impedance value for the electrode and generate an output corresponding to a proximity of the electrode relative to tissue if the subsequent impedance value is greater than the baseline impedance value; and a display for displaying proximities of the electrodes relative to the tissue based on outputs received from the contact assessment module.
A computer-readable medium comprising instructions that, when executed, cause processing circuitry to perform a method, the method comprising: determining an evoked compound action potential (ECAP) signal based on sensed signals from a patient; determining, based on the ECAP signal, one or more parameters for electrical stimulation therapy; and outputting for display a configure-thresholds screen of a graphical user interface, wherein the configure-thresholds screen comprises: an ECAP-signal graph displaying the ECAP signal over time; a stimulation-amplitude graph displaying the one or more determined parameters for the electrical stimulation therapy over time; a target-amplitude widget configured to receive first user input indicating a desired change in a target amplitude of at least one therapy program of the electrical stimulation therapy; and an ECAP thresholds widget configured to receive second user input indicating a desired change in an amplitude of an ECAP threshold for the ECAP signal. determining an evoked compound action potential (ECAP) signal based on sensed signals from a patient; determining, based on the ECAP signal, one or more parameters for electrical stimulation therapy; and outputting for display a configure-thresholds screen of a graphical user interface, wherein the configure-thresholds screen comprises: an ECAP-signal graph displaying the ECAP signal over time; a stimulation-amplitude graph displaying the one or more determined parameters for the electrical stimulation therapy over time; a target-amplitude widget configured to receive first user input indicating a desired change in a target amplitude of at least one therapy program of the electrical stimulation therapy; and an ECAP thresholds widget configured to receive second user input indicating a desired change in an amplitude of an ECAP threshold for the ECAP signal. an ECAP-signal graph displaying the ECAP signal over time; a stimulation-amplitude graph displaying the one or more determined parameters for the electrical stimulation therapy over time; a target-amplitude widget configured to receive first user input indicating a desired change in a target amplitude of at least one therapy program of the electrical stimulation therapy; and an ECAP thresholds widget configured to receive second user input indicating a desired change in an amplitude of an ECAP threshold for the ECAP signal.
A shelve apparatus, comprising: a cabinet; rails disposed on opposite sides of the cabinet; a case to be fastened to the rails at various locations and having a body defining an interior characterized in that the body of the case further defines an upper and a lower flange extending from the body; and that a wall module is provided having a body, from which an upper and a lower wing extend, to be fastened to the rails at various locations relative to the case such that the wings and the flanges overlappingly form a pathway with a rear surface of the case along which air flows into the body interior of the case. a cabinet; rails disposed on opposite sides of the cabinet; a case to be fastened to the rails at various locations and having a body defining an interior characterized in that the body of the case further defines an upper and a lower flange extending from the body; and that a wall module is provided having a body, from which an upper and a lower wing extend, to be fastened to the rails at various locations relative to the case such that the wings and the flanges overlappingly form a pathway with a rear surface of the case along which air flows into the body interior of the case.
Panel, in particular for floor covering, comprising: a first edge face provided with a first coupling means comprising a groove (24; 124); a second, opposite edge face provided with a second coupling means comprising a tongue (26, 26'; 126'), said coupling means being designed to engage so as to allow two of these panels (10, 10'; 110, 110') to be coupled in an assembly plane; mechanical locking means, integrated into said coupling means, which, when two panels are coupled in the assembly plane, prevent these panels from moving apart from one another in a direction perpendicular to that of said edge faces and parallel to said assembly plane; at least one of said coupling means (20, 22) being provided, on at least part of its surface, with a repositionable adhesive (39, 39', 40, 40'; 139', 140'); characterized in that said coupling means (20, 22) are designed for coupling with essentially no elastic deformation of the coupling means and the repositionable adhesive makes it possible to stick and unstick a great number of times, wherein the adhesive strength of said adhesive does not increase after contact. a first edge face provided with a first coupling means comprising a groove (24; 124); a second, opposite edge face provided with a second coupling means comprising a tongue (26, 26'; 126'), said coupling means being designed to engage so as to allow two of these panels (10, 10'; 110, 110') to be coupled in an assembly plane; mechanical locking means, integrated into said coupling means, which, when two panels are coupled in the assembly plane, prevent these panels from moving apart from one another in a direction perpendicular to that of said edge faces and parallel to said assembly plane; at least one of said coupling means (20, 22) being provided, on at least part of its surface, with a repositionable adhesive (39, 39', 40, 40'; 139', 140'); characterized in that said coupling means (20, 22) are designed for coupling with essentially no elastic deformation of the coupling means and the repositionable adhesive makes it possible to stick and unstick a great number of times, wherein the adhesive strength of said adhesive does not increase after contact.
A heat dissipation assembly, configured to dissipate heat for a heat emitting device, wherein the heat dissipation assembly comprises: • a cage, • a thermal electric cooling TEC assembly, • a mounting kit, • an elastic carrier, • a caging device, and • a heat pipe, wherein • a window is provided in a side face of the cage, • the TEC assembly is located on an outer side of the cage, and • a part of the TEC assembly including a cold side of the TEC assembly passes through the window, so that the cold side of TEC assembly thermally communicates with the heat emitting device in the cage, so as to dissipate heat of the heat emitting device; • the mounting kit is configured to mount the TEC assembly and enable the TEC assembly to move in a direction leaving or approaching the heat emitting device; and • a heat absorption portion of the heat pipe is mounted on the elastic carrier, and the heat absorption portion of the heat pipe is mounted on the elastic carrier thermally communicates with a hot side of the TEC assembly, so as to dissipate heat of the TEC assembly by using the heat pipe, wherein • a side of the elastic carrier facing away from the TEC assembly presses against the caging device, and • the elastic carrier is configured to undergo elastic deformation and provide a reaction force to the TEC assembly and the heat emitting device, when the heat emitting device is inserted into the cage and applies an extrusion force to the outer side of the cage, and the extrusion force is transferred to the TEC assembly through the window and transferred to the elastic carrier from the TEC assembly,. • a cage, • a thermal electric cooling TEC assembly, • a mounting kit, • an elastic carrier, • a caging device, and • a heat pipe, • a window is provided in a side face of the cage, • the TEC assembly is located on an outer side of the cage, and • a part of the TEC assembly including a cold side of the TEC assembly passes through the window, so that the cold side of TEC assembly thermally communicates with the heat emitting device in the cage, so as to dissipate heat of the heat emitting device; • the mounting kit is configured to mount the TEC assembly and enable the TEC assembly to move in a direction leaving or approaching the heat emitting device; and • a heat absorption portion of the heat pipe is mounted on the elastic carrier, and the heat absorption portion of the heat pipe is mounted on the elastic carrier thermally communicates with a hot side of the TEC assembly, so as to dissipate heat of the TEC assembly by using the heat pipe, wherein • a side of the elastic carrier facing away from the TEC assembly presses against the caging device, and • the elastic carrier is configured to undergo elastic deformation and provide a reaction force to the TEC assembly and the heat emitting device, when the heat emitting device is inserted into the cage and applies an extrusion force to the outer side of the cage, and the extrusion force is transferred to the TEC assembly through the window and transferred to the elastic carrier from the TEC assembly,.
An internal combustion engine control device for a vehicle that has a powertrain which includes an internal combustion engine, an automatically controlled manual transmission and a clutch arranged to be controlled into an open state, a half-clutch state and a full engagement state, wherein creep driving can take place with the clutch in the half-clutch state and the full engagement state, wherein the internal combustion engine control device is configured to perform a feedback control of a rotational speed of the internal combustion engine to an idle rotational speed during creep driving of the vehicle and comprises a control means configured to change a lower limit value of a feedback control amount according to the engagement state of the clutch, and wherein the control means is configured to reduce an absolute value of the lower limit value of the feedback control amount when the lower limit value of the feedback control amount is a negative value and the clutch is in the full engagement state, compared to when the clutch is in the half-clutch state.