mhurhangee/ep-ind-claims huggingface dataset:
An ink jet head comprising: a nozzle plate including a nozzle array consisting of a plurality of nozzle holes; an actuator plate configured to be filled with ink, the actuator plate including a plurality of channels communicating with the nozzle holes; and a protection plate disposed on an ejection face of the nozzle plate from which the ink is to be ejected, the protection plate including through holes formed at positions corresponding to the nozzle holes, the through holes communicating with the nozzle holes, wherein: the protection plate comprises an exposed portion on the nozzle plate side of the protection plate which is not covered by the nozzle plate at a position other than a joining face of the nozzle plate when seen in a plan view from a back face of the nozzle plate, the joining face being a portion of the back face of the nozzle plate which is attached to the actuator plate, the back face being located opposite to the ejection face, and the protection plate is grounded through the exposed portion. a nozzle plate including a nozzle array consisting of a plurality of nozzle holes; an actuator plate configured to be filled with ink, the actuator plate including a plurality of channels communicating with the nozzle holes; and a protection plate disposed on an ejection face of the nozzle plate from which the ink is to be ejected, the protection plate including through holes formed at positions corresponding to the nozzle holes, the through holes communicating with the nozzle holes, wherein: the protection plate comprises an exposed portion on the nozzle plate side of the protection plate which is not covered by the nozzle plate at a position other than a joining face of the nozzle plate when seen in a plan view from a back face of the nozzle plate, the joining face being a portion of the back face of the nozzle plate which is attached to the actuator plate, the back face being located opposite to the ejection face, and the protection plate is grounded through the exposed portion. the protection plate comprises an exposed portion on the nozzle plate side of the protection plate which is not covered by the nozzle plate at a position other than a joining face of the nozzle plate when seen in a plan view from a back face of the nozzle plate, the joining face being a portion of the back face of the nozzle plate which is attached to the actuator plate, the back face being located opposite to the ejection face, and the protection plate is grounded through the exposed portion.
A production method of a polyoxyethylene derivative represented by the following formula which comprises performing the following step, step, step and step: wherein in the formula, L 1 is a divalent linker, X is a functional group capable of reacting with a physiologically active substance, a is 1 or 2, and n is from 11 to 3,650; Step: a step wherein in a polyhydric alcohol having 5 or 7 hydroxyl groups, 4 or 6 hydroxyl groups are protected by cyclic benzylidene acetalization to obtain a compound having the hydroxyl group at a 1-position and a protective group of a cyclic benzylidene acetal structure; Step: a step wherein from 11 to 3,650 moles of ethylene oxide are polymerized to the compound obtained in the step to obtain a polyoxyethylene derivative; Step: a step wherein the hydroxyl group at a terminal of the polyoxyethylene derivative obtained in the step is converted to the functional group capable of reacting with a physiologically active substance; and Step: a step wherein the protective group of the polyoxyethylene derivative is deprotected. wherein in the formula, L 1 is a divalent linker, X is a functional group capable of reacting with a physiologically active substance, a is 1 or 2, and n is from 11 to 3,650; Step: a step wherein in a polyhydric alcohol having 5 or 7 hydroxyl groups, 4 or 6 hydroxyl groups are protected by cyclic benzylidene acetalization to obtain a compound having the hydroxyl group at a 1-position and a protective group of a cyclic benzylidene acetal structure; Step: a step wherein from 11 to 3,650 moles of ethylene oxide are polymerized to the compound obtained in the step to obtain a polyoxyethylene derivative; Step: a step wherein the hydroxyl group at a terminal of the polyoxyethylene derivative obtained in the step is converted to the functional group capable of reacting with a physiologically active substance; and Step: a step wherein the protective group of the polyoxyethylene derivative is deprotected.
A one-piece aerodynamic fan nosecone assembly comprising: a fan nosecone having a leading edge and a trailing edge with an aerodynamic exterior surface extending between the leading and trailing edge (32, 34); a plurality of aerodynamic fairings (40, 40') spaced apart and affixed to said aerodynamic exterior surface of the fan nosecone; said fairings (40, 40') having a base with a profiled surface, an attachment surface and a cavity, the fairings (40, 40') further having a filler material with a first portion that is located within the cavity and a second portion that is located outside of the cavity; and an attachment feature extending downwardly from a lower portion of each fairing (40, 40'). a fan nosecone having a leading edge and a trailing edge with an aerodynamic exterior surface extending between the leading and trailing edge (32, 34); a plurality of aerodynamic fairings (40, 40') spaced apart and affixed to said aerodynamic exterior surface of the fan nosecone; said fairings (40, 40') having a base with a profiled surface, an attachment surface and a cavity, the fairings (40, 40') further having a filler material with a first portion that is located within the cavity and a second portion that is located outside of the cavity; and an attachment feature extending downwardly from a lower portion of each fairing (40, 40').
A medical accessory holder for use during reprocessing and/or conditioning of medical equipment, said holder comprising: a planar base portion having an upper section and a lower section wherein the upper section is removably mountable on the lower section; at least one recess (12, 13, 14) provided in the planar base portion, each said recess (12, 13, 14) being adapted to receive a medical accessory (15, 16, 17) therein, such that said medical accessory is firmly engaged in said recess (12, 13, 14); retaining means associated with the base portion and adapted to engage therewith such that, once engaged, the retaining means cannot be disengaged, and said medical accessory (15, 16, 17) cannot be removed from said recess (12, 13, 14), without breaking the retaining means, thereby rendering said holder suitable only for single use; and attachment means adapted to enable said holder to be secured to an article of medical equipment with which said medical accessory (15, 16, 17) is associated, during reprocessing thereof, wherein the retaining means is adapted to lock said upper and lower sections (18, 19) together.
A dynamic bioabsorbable staple for closing a skin wound having opposed sides (160,162), the staple comprising: a staple body formed of a viscoelastic bioabsorbable polymer material including a pair of staple arms (102,104) operably joined at a shoulder portion (103,105) by a backspan, the staple arms (102, 104) and backspan defining an arcuate exterior surface and an arcuate interior surface, each staple arm (102,104) defining an effective arm center line, the backspan defining an effective backspan center line, each staple arm (102,104) further including an elbow portion (115,117) having an inwardly projecting cleat (116,118) with each cleat defining an effective cleat center line, the staple arms (102,104), the inwardly projecting cleats (116,118) and the backspan defining an internal tissue capture zone; and each shoulder portion (103,105) including an interior shoulder angle generally defined by the intersection of the effective backspan center line and the corresponding effective arm center line, the shoulder portion (103,105) constructed so that the interior shoulder angle is between 70° - 100° in a first position, wherein the arcuate exterior surface and the arcuate interior surface are adapted to distribute opposed lateral forces applied to the staple arms (102, 104) to the shoulder portions (103, 105) such that each interior shoulder angle transitions to between 120° - 180° in a second deformed position in response to the opposed lateral forces without failure of the staple body until a minimum degradation period of the viscoelastic bioabsorbable polymer material such that the internal tissue capture zone is reformed while an interior elbow angle generally defined by the intersection of each staple effective arm center line and the corresponding effective cleat center line is equal to or less than 90°.
A fastener tape assembly comprising: a fastening component defining a first face for affixment to a disposable article or substrate and an oppositely directed second face; a connecting component, wherein the connecting component comprises: a bonding component defining a first face for affixment to a disposable article or substrate and an oppositely directed second face; and an extension component (30, 90) generally disposed between the fastening component and the bonding component; wherein the first face of the fastening component is at least partially covered by an adhesive; wherein the first face of the bonding component is at least partially covered by an adhesive; and wherein the extension component (30, 90) comprises a folded edge and further comprises an adhesive-free portion between the folded edge of the extension component (30, 90) and the bonding component. a fastening component defining a first face for affixment to a disposable article or substrate and an oppositely directed second face; a connecting component, wherein the connecting component comprises: a bonding component defining a first face for affixment to a disposable article or substrate and an oppositely directed second face; and an extension component (30, 90) generally disposed between the fastening component and the bonding component; a bonding component defining a first face for affixment to a disposable article or substrate and an oppositely directed second face; and an extension component (30, 90) generally disposed between the fastening component and the bonding component; wherein the first face of the fastening component is at least partially covered by an adhesive; wherein the first face of the bonding component is at least partially covered by an adhesive; and wherein the extension component (30, 90) comprises a folded edge and further comprises an adhesive-free portion between the folded edge of the extension component (30, 90) and the bonding component.
Duplex ferritic austenitic stainless steel having 40 - 60 volume % ferrite and 40 - 60 volume % austenite, at the annealed condition, and having improved cold workability and impact toughness, characterized in that the steel, having the impact strength at least 27,5 J, consisting of in weight % less than 0.04 % carbon, 0,1 - 2,0 % silicon (Si), 3,8 - 5 % manganese (Mn), 21 - 22 % chromium (Cr), 1,35 - 1,9 % nickel (Ni), 1,1 - 1,5 % copper (Cu), 0.18 - 0,26 % nitrogen, optionally molybdenum (Mo) and/or tungsten in a total amount calculated with the formula (Mo + 1⁄2W) ≤ 1,0 %, optionally 0,001 - 0,005 % boron, optionally up to 0,03 % of each of cerium (Ce) and/or calcium (Ca), balance being iron (Fe) and inevitable impurities such as Ti, Nb, Co and for the ferrite formers and the austenite formers, i.e. for the chromium equivalent (Cr eq) and the nickel equivalent (Ni eq): 21 < Cr eq < 24,5 and Ni eq > 10, where Cr eq = Cr + 1,5Si + Mo + 2Ti + 0,5Nb, Ni eq = Ni + 0,5Mn + 30(C+N) + 0,5(Cu+Co) and the alloys annealed according to the ASTM G150 test with 1,0 M NaCl and the critical pitting temperature is 13 - 19 °C.
A control method for a cooking device, comprising: - performing monitoring during operation of a cooking device, to obtain monitoring data, wherein a dimension of the monitoring data comprises at least one of a surface temperature of a cooked object, a weight of the cooked object, or a chamber temperature of the cooking device; characterized in that the method further comprises: - inputting the monitoring data to a preset regression model, to obtain a predicted internal temperature of the cooked object, wherein the preset regression model is used for representing a correlation between an internal temperature of the cooked object and the monitoring data; and - adjusting an operating status of the cooking device according to at least the predicted internal temperature of the cooked object. - performing monitoring during operation of a cooking device, to obtain monitoring data, wherein a dimension of the monitoring data comprises at least one of a surface temperature of a cooked object, a weight of the cooked object, or a chamber temperature of the cooking device; - inputting the monitoring data to a preset regression model, to obtain a predicted internal temperature of the cooked object, wherein the preset regression model is used for representing a correlation between an internal temperature of the cooked object and the monitoring data; and - adjusting an operating status of the cooking device according to at least the predicted internal temperature of the cooked object.
A motorized drive device with at least one leaf rotating about a vertical axis between two abutting positions, a first closing position at least partially obstructing a surface delimiting an opening in a wall and a second open position freeing said surface and pressing the leaf near said wall, including a motorized rotating shaft able to be connected by means of a control arm of the device to at least one leaf, said control arm including: - a drive arm mounted idle at one of its ends on the motorized rotating shaft and the other end of which is able to be connected to at least one leaf; - a motor arm rotated by said motorized rotating shaft; and - means for locking/unlocking the motor arm to the drive arm, said locking/unlocking means including: - a lever (4, 40, 50) mounted movably relative to the drive and motor arms and in contact with one of said arms (1, 2); - means for securing the motor arm to the drive arm by shape cooperation of the lever (4, 40, 50) and the arms (1, 2), said securing means being actuated in a predetermined position of the lever (4, 40, 50), characterized in that the lever (4, 40, 50) has a flexible blade, is mounted rotating in contact with a first arm (1, 2), and has at least one free end provided with surfaces for positioning and blocking the second arm (2, 1) in alignment with the first arm (1, 2) when the lever (4, 40, 50) is aligned with the two arms (1, 2). - a drive arm mounted idle at one of its ends on the motorized rotating shaft and the other end of which is able to be connected to at least one leaf; - a motor arm rotated by said motorized rotating shaft; and - means for locking/unlocking the motor arm to the drive arm, - a lever (4, 40, 50) mounted movably relative to the drive and motor arms and in contact with one of said arms (1, 2); - means for securing the motor arm to the drive arm by shape cooperation of the lever (4, 40, 50) and the arms (1, 2), said securing means being actuated in a predetermined position of the lever (4, 40, 50),
Method for starting up, configuring or parameterizing a machine or machines in a machine series, (a) wherein a planning system is used to create an executable software package, wherein the software package contains start-up data for a particular machine or for the machines in the machine series; (b) wherein the executable software package is automatically generated by means of the planning system using a step tree and comprises the step tree, wherein the step tree is structured in the form of a graph with edges and nodes, wherein the edges of the step tree describe permitted transitions between two nodes of the step tree in each case, wherein the nodes of the step tree form start-up steps, wherein the step tree comprises, in a hierarchically structured arrangement, those items of data and/or information which are needed to start up a machine or a plurality of machines; and (c) wherein the software package is executed by means of a control device included in the machine or by means of a unit communicatively connected to the machine, in particular a programming device or a local or remote server, and the start-up steps are carried out in the process according to a sequence defined by means of the step tree. (a) wherein a planning system is used to create an executable software package, wherein the software package contains start-up data for a particular machine or for the machines in the machine series; (b) wherein the executable software package is automatically generated by means of the planning system using a step tree and comprises the step tree, wherein the step tree is structured in the form of a graph with edges and nodes, wherein the edges of the step tree describe permitted transitions between two nodes of the step tree in each case, wherein the nodes of the step tree form start-up steps, wherein the step tree comprises, in a hierarchically structured arrangement, those items of data and/or information which are needed to start up a machine or a plurality of machines; and (c) wherein the software package is executed by means of a control device included in the machine or by means of a unit communicatively connected to the machine, in particular a programming device or a local or remote server, and the start-up steps are carried out in the process according to a sequence defined by means of the step tree.
Offshore container having a bottom wall, characterised in that the offshore container has a locking device, designed to secure an onshore freight container on a loading area of the bottom wall of the offshore container, where the locking device has at least one locking unit, which is arranged fitted on and fastened to the loading area of the bottom wall.
A transport refrigeration unit, TRU, system, comprising: a plurality of containers; a plurality of TRUs, each of the plurality of TRUs operably coupled to a corresponding one of the plurality of containers and comprising: components configured to control an environment within an interior (201; 203) of the corresponding container; and a TRU battery pack configured to store energy for powering at least the components; an electrical grid, wherein each of the plurality of TRUs is coupled to the electrical grid such that a capacity of the TRU battery pack of each of the plurality of TRUs can be made available to the electrical grid; and a control unit which is communicative with each of the plurality of TRUs and the electrical grid and which is configured to manage power supplies and demands between the TRU battery pack of each of the plurality of TRUs and the electrical grid. a plurality of containers; a plurality of TRUs, each of the plurality of TRUs operably coupled to a corresponding one of the plurality of containers and comprising: components configured to control an environment within an interior (201; 203) of the corresponding container; and a TRU battery pack configured to store energy for powering at least the components; components configured to control an environment within an interior (201; 203) of the corresponding container; and a TRU battery pack configured to store energy for powering at least the components; an electrical grid, wherein each of the plurality of TRUs is coupled to the electrical grid such that a capacity of the TRU battery pack of each of the plurality of TRUs can be made available to the electrical grid; and a control unit which is communicative with each of the plurality of TRUs and the electrical grid and which is configured to manage power supplies and demands between the TRU battery pack of each of the plurality of TRUs and the electrical grid.
A computer program product comprising instructions executable by a workstation including at least one electronic processor and a display device to perform a quality control method, the method comprising: receiving a current QC data set acquired by a pixelated detector and one or more prior QC data sets acquired by the pixelated detector; determining sensitivity levels of the detector pixels of the pixelated detector; determining stability levels of detector pixels of the pixelated detector over time from the current QC data set and the one or more prior QC data sets, wherein stability is determined as change over time of the sensitivity of the detector pixels in the current and prior QC data sets; labeling a detector pixel of the pixelated detector as dead when the stability level determined for the detector pixel is outside of a stability threshold range; and displaying, on said display device operatively connected with the workstation, an identification of the detector pixels labelled as dead; the method further comprising: reconstructing an imaging data set acquired by the pixelated detector with data acquired by the detector pixels labeled as dead omitted to generate a current QC image; and displaying, on the display device a comparison of the current QC image with a reference image generated with the one or more prior QC data sets. receiving a current QC data set acquired by a pixelated detector and one or more prior QC data sets acquired by the pixelated detector; determining sensitivity levels of the detector pixels of the pixelated detector; determining stability levels of detector pixels of the pixelated detector over time from the current QC data set and the one or more prior QC data sets, wherein stability is determined as change over time of the sensitivity of the detector pixels in the current and prior QC data sets; labeling a detector pixel of the pixelated detector as dead when the stability level determined for the detector pixel is outside of a stability threshold range; and displaying, on said display device operatively connected with the workstation, an identification of the detector pixels labelled as dead; the method further comprising: reconstructing an imaging data set acquired by the pixelated detector with data acquired by the detector pixels labeled as dead omitted to generate a current QC image; and displaying, on the display device a comparison of the current QC image with a reference image generated with the one or more prior QC data sets. reconstructing an imaging data set acquired by the pixelated detector with data acquired by the detector pixels labeled as dead omitted to generate a current QC image; and displaying, on the display device a comparison of the current QC image with a reference image generated with the one or more prior QC data sets.