mhurhangee/ep-ind-claims huggingface dataset:
A method for problem diagnosis in a robot system comprising one or more robots (1a, 1b, 2a, 2b,...), the method comprising the steps of: a) receiving a first problem message from a robot of said robot system, the problem message comprising one or more data elements descriptive of a problem experienced by the robot; b) receiving a subsequent problem message from a robot of said robot system; c) if a time elapsed between receipt of said subsequent message and receipt of an immediately preceding message is shorter than a pretedermined threshold, adding said subsequent message to a message set which comprises said immediately preceding message; d) if the time elapsed is longer than the pretedermined threshold, terminating the message set of the immediately preceding message without adding the subsequent message, and establishing (S5, S6) a new message set in which said subsequent message is the first message; e) in a terminated message set, identifying at least one descriptive data element which is frequent in the messages of the set or which occurs in a first message of the set; and f) assigning said at least one descriptive data element as a name to the terminated message set. a) receiving a first problem message from a robot of said robot system, the problem message comprising one or more data elements descriptive of a problem experienced by the robot; b) receiving a subsequent problem message from a robot of said robot system; c) if a time elapsed between receipt of said subsequent message and receipt of an immediately preceding message is shorter than a pretedermined threshold, adding said subsequent message to a message set which comprises said immediately preceding message; d) if the time elapsed is longer than the pretedermined threshold, terminating the message set of the immediately preceding message without adding the subsequent message, and establishing (S5, S6) a new message set in which said subsequent message is the first message; e) in a terminated message set, identifying at least one descriptive data element which is frequent in the messages of the set or which occurs in a first message of the set; and f) assigning said at least one descriptive data element as a name to the terminated message set.
A synthetic peptide selected from the group consisting of: (i) SEQ ID NO: 5, (ii) a variant of SEQ ID NO:5 comprising Nva at position 18 and/or Orn at position 23, wherein one or more of the peptidic bonds between amino acid pairs Ser 4 -Ser 5, Tyr 6 -Ile 7, Lys 13 -Arg 14, Glu 15 -Val 16 and Lys 21 -Tyr 22 is replaced with a non-peptidic reduced amide bond. (i) SEQ ID NO: 5, (ii) a variant of SEQ ID NO:5 comprising Nva at position 18 and/or Orn at position 23,
A transport rack and/or storage rack for the standing transport and/or standing storage of plate-shaped goods, especially windows, doors, glass panes or stone slabs, comprising - at least two support elements, - wherein a standing strip is arranged at a first end of each of the support elements, which standing strip is removably fastenable to a base plate, in particular a pallet, while resting thereon, - wherein the support elements are connected to each other by at least one crossbar that can be mounted on the support elements, - wherein the standing strip is oriented perpendicularly to the crossbar, - and wherein the support elements are formed as integral or multipart plates with two leaning edges (44, 45) approaching each other at an acute angle away from a base side (42, 412) arranged on the standing strip, characterized in that - the at least one crossbar comprises several slots (52, 53) arranged on one longitudinal side, wherein first slots are formed as receiving slots for accommodating and upper edge or a leaning edge (44, 45) of the support element. - at least two support elements, - wherein a standing strip is arranged at a first end of each of the support elements, which standing strip is removably fastenable to a base plate, in particular a pallet, while resting thereon, - wherein the support elements are connected to each other by at least one crossbar that can be mounted on the support elements, - wherein the standing strip is oriented perpendicularly to the crossbar, - and wherein the support elements are formed as integral or multipart plates with two leaning edges (44, 45) approaching each other at an acute angle away from a base side (42, 412) arranged on the standing strip, characterized in that - the at least one crossbar comprises several slots (52, 53) arranged on one longitudinal side, wherein first slots are formed as receiving slots for accommodating and upper edge or a leaning edge (44, 45) of the support element.
Machine for cutting a moving object, the machine comprising: - conveyor means for carrying the object along an advancement direction at a line speed (V l); - a driving and cutting unit configured to move in a cutting cycle according to: • a forward phase along a direction parallel to the advancement direction with the same direction as the conveyor means direction in order to perform the cutting of the moving object; • a return phase subsequent to the forward phase, along the direction parallel to the advancement direction with an direction opposite to the conveyor means direction in order to return to the initial position of the cutting cycle; characterized in that the cutting machine further includes: - a processing unit configured to generate a driving signal (S azm) controlling the movement of the driving and cutting unit with an acceleration trend wherein the maximum absolute value of the acceleration (a c-r) within the return phase is smaller than the maximum absolute value of the acceleration (a c-a) within the forward phase. - conveyor means for carrying the object along an advancement direction at a line speed (V l); - a driving and cutting unit configured to move in a cutting cycle according to: • a forward phase along a direction parallel to the advancement direction with the same direction as the conveyor means direction in order to perform the cutting of the moving object; • a return phase subsequent to the forward phase, along the direction parallel to the advancement direction with an direction opposite to the conveyor means direction in order to return to the initial position of the cutting cycle; • a forward phase along a direction parallel to the advancement direction with the same direction as the conveyor means direction in order to perform the cutting of the moving object; • a return phase subsequent to the forward phase, along the direction parallel to the advancement direction with an direction opposite to the conveyor means direction in order to return to the initial position of the cutting cycle; - a processing unit configured to generate a driving signal (S azm) controlling the movement of the driving and cutting unit with an acceleration trend wherein the maximum absolute value of the acceleration (a c-r) within the return phase is smaller than the maximum absolute value of the acceleration (a c-a) within the forward phase.
A display device comprising: a first electrode; a second electrode facing the first electrode; a first insulating layer on the first electrode and the second electrode and positioned between the first electrode and the second electrode; a light emitting element on the first insulating layer; a second insulating layer covering the light emitting element and exposing first and second end portions of the light emitting element; a third insulating layer on the second insulating layer; a first contact electrode electrically connected to the first electrode, the first contact electrode being on the third insulating layer and in contact with the first end portion of the light emitting element exposed by the second insulating layer; and a second contact electrode electrically connected to the second electrode, the second contact electrode being on the third insulating layer and in contact with a second end portion of the light emitting element exposed by the second insulating layer, wherein the second insulating layer is an inorganic insulating layer; and wherein the third insulating layer is an organic insulating layer. a first electrode; a second electrode facing the first electrode; a first insulating layer on the first electrode and the second electrode and positioned between the first electrode and the second electrode; a light emitting element on the first insulating layer; a second insulating layer covering the light emitting element and exposing first and second end portions of the light emitting element; a third insulating layer on the second insulating layer; a first contact electrode electrically connected to the first electrode, the first contact electrode being on the third insulating layer and in contact with the first end portion of the light emitting element exposed by the second insulating layer; and a second contact electrode electrically connected to the second electrode, the second contact electrode being on the third insulating layer and in contact with a second end portion of the light emitting element exposed by the second insulating layer, wherein the second insulating layer is an inorganic insulating layer; and wherein the third insulating layer is an organic insulating layer.
A method for making a ceramic body, the method comprising: compounding a comminuted pre-mixture with one or more inorganic components into a batch mixture, the comminuted pre-mixture consisting essentially of a cellulose ether powder component and a deagglomerated hydrous alumina powder component; adding a liquid to the batch mixture to form a plastic batch; forming the plastic batch into a shaped body; and heating the shaped body to form the ceramic body. compounding a comminuted pre-mixture with one or more inorganic components into a batch mixture, the comminuted pre-mixture consisting essentially of a cellulose ether powder component and a deagglomerated hydrous alumina powder component; adding a liquid to the batch mixture to form a plastic batch; forming the plastic batch into a shaped body; and heating the shaped body to form the ceramic body.
A tube heat exchanger for indirect heat transfer between a first medium flowing in a tubing arranged in a jacket space and a second medium flowing through the jacket space, wherein the tube heat exchanger comprises at least one cuboid or cubic tube heat exchanger module formed by laser melting in one piece, of which the tubing runs in a closed housing forming the jacket space and having first and second supply connections (6, 7) and outlet connections (8, 9) for the first and second medium in two or more planes and respectively meandering, wherein two or more tube heat exchanger modules can be arranged one above the other or side by side and can be connected together fixedly and sealingly at the respective supply and outlet connections (6 to 9) formed in a cover (4, 5) or side wall, wherein the sections of the tubing running in the same plane are connected to one another and to the inner surface of the side walls by transverse walls and form with them a separation area formed in this plane, wherein the flow space present between two separation areas or a separation area and the upper or lower cover (4, 5) is connected by overflow openings present in adjacent separation areas at opposite sides respectively in the transverse walls to the respective adjacent flow space and thus in the housing a meandering flow channel for the second medium is formed.
Printing apparatus for digital printing on objects, the apparatus having: - a printer for digitally controlled printing an image on each object; - an object transporter (25, 26) for transporting the objects in front of the printer and in a registered alignment between a respective object and the printer and for rotating each individual object in front of the printer, digitally controlling the print on the object surface, wherein the transporter includes a plurality of mandrels, each mandrel being sized to receive a respective one of the objects, characterized in, that the transporter includes a plurality of servo motors, with a respective one of the servo motors being connected to a respective one of the mandrels, the servo motors being operative to rotate and register the respective mandrels in front of each print-head (30a, 30b, 30c) to thereby directly drive the objects to rotate corresponding to an image to be directly printed on the object by the respective print-head (30a, 30b, 30c), and that the print-heads are arranged in one or two groups (30a to 30f; 43a to 43f), each group of print-heads is aligned around an arcuate part of a circular path with the circular path of movement of the transporter (25, 26). - a printer for digitally controlled printing an image on each object; - an object transporter (25, 26) for transporting the objects in front of the printer and in a registered alignment between a respective object and the printer and for rotating each individual object in front of the printer, digitally controlling the print on the object surface,
A welding system comprising: processing circuitry configured to provide a control waveform comprising a peak phase followed by a background phase; and power conversion circuitry configured to provide welding power output based upon the control waveform, characterized in that the processing circuitry is configured to provide a control waveform comprising a peak phase followed immediately by a dabbing phase followed by a background phase; and in that the system is configured in that during the dabbing phase having a current level lower than the background current level a very brief short circuit is established once the molten material from a welding electrode is already detaching from the electrode and transferring to a weld puddle without any clearing sequence for clearing short circuits. processing circuitry configured to provide a control waveform comprising a peak phase followed by a background phase; and power conversion circuitry configured to provide welding power output based upon the control waveform, characterized in that the processing circuitry is configured to provide a control waveform comprising a peak phase followed immediately by a dabbing phase followed by a background phase; and in that the system is configured in that during the dabbing phase having a current level lower than the background current level a very brief short circuit is established once the molten material from a welding electrode is already detaching from the electrode and transferring to a weld puddle without any clearing sequence for clearing short circuits.
A terminal device, comprising: at least one processor and at least one memory coupled to the processor to communicate with the processor, wherein the memory stores program instructions executable by the processor, said terminal being characterised by: the processor calls the program instructions to perform: receiving a first configuration parameter from a network side, wherein the first configuration parameter comprises a transmission period T_interval; acquiring a transmission location T N of an uplink grant-free transmission according to the first configuration parameter; acquiring, according to the transmission location T N, a subframe time slot and a Hybrid Automatic Repeat Request, HARQ, process ID used in a first time of transmission of the uplink grant-free transmission; and initiating, through a HARQ process corresponding to the HARQ process ID, the uplink grant-free transmission to a network side on the subframe time slot. receiving a first configuration parameter from a network side, wherein the first configuration parameter comprises a transmission period T_interval; acquiring a transmission location T N of an uplink grant-free transmission according to the first configuration parameter; acquiring, according to the transmission location T N, a subframe time slot and a Hybrid Automatic Repeat Request, HARQ, process ID used in a first time of transmission of the uplink grant-free transmission; and initiating, through a HARQ process corresponding to the HARQ process ID, the uplink grant-free transmission to a network side on the subframe time slot.
Process container for carrying out a cleaning process, a drying process, a deburring process, a coating process and/or a coating removal process on a workpiece in the interior of the process container, comprising a wall delimiting the interior of the process container, wherein the process container comprises at least one medium passage (118, 128), by means of which a medium is guidable through the wall of the process container, at least two different process elements of different types being adaptable to at least one of the medium passages (118, 128), wherein the process container comprises a container lower part and a container upper part placed removably on the container lower part and wherein the at least one medium passage (118, 120) extends through the wall of the container lower part, characterised in that the process container has an open access opening arranged at the upper edge of the container upper part and at an upper side of the process container, by means of which an interior enclosed by the container lower part and the container upper part is accessible from an exterior of the process container, and through which a workpiece held on a handling apparatus is introducible into the interior of the process container for a treatment procedure and, after a completed treatment, removable from the process container.
A refrigerator having a freezer compartment and a refrigerator compartment, the refrigerator comprising: an icemaker provided in the freezer compartment or at a freezer compartment door configured to open/close the freezer compartment; a dispenser provided at a refrigerator compartment door configured to open/close the refrigerator compartment; a water tank removably provided at the refrigerator compartment door; and a pump configured to pump water from the water tank to the icemaker; characterized in that the water tank has an inlet for putting in water, a first outlet for supplying water to the dispenser, and a second outlet for supplying water to the pump; wherein the refrigerator comprises a switch configured to selectively open and close the second outlet, wherein if the water tank is separated from the refrigerator compartment door, the switch is configured to close the second outlet and/or wherein if the water tank is installed at the refrigerator compartment door, the switch is configured to open the second outlet. an icemaker provided in the freezer compartment or at a freezer compartment door configured to open/close the freezer compartment; a dispenser provided at a refrigerator compartment door configured to open/close the refrigerator compartment; a water tank removably provided at the refrigerator compartment door; and a pump configured to pump water from the water tank to the icemaker; characterized in that the water tank has an inlet for putting in water, a first outlet for supplying water to the dispenser, and a second outlet for supplying water to the pump; wherein the refrigerator comprises a switch configured to selectively open and close the second outlet, wherein if the water tank is separated from the refrigerator compartment door, the switch is configured to close the second outlet and/or wherein if the water tank is installed at the refrigerator compartment door, the switch is configured to open the second outlet.
A lighting fixture, comprising: a light source; electronics electrically coupled to and powering said light source; a surge protection device having a housing (20, 120) supporting a live connection (23A, 123A), a neutral connection (23B, 123B), and a ground connection (23C, 123C), at least said live connection (23A, 123A) and said neutral connection (23B, 123B) being electrically coupled to said electronics; said live connection (23A, 123A), said neutral connection (23B, 123B), and said ground connection (23C, 123C) each having a power source input, and said ground connection additionally having a lighting fixture functional ground input; a plurality of varistors (41-43, 141-143) sealingly enclosed within said housing (20, 120), said varistors (41-43, 141-143) including a first varistor and a second varistor electrically connected to one another in a series connection between said live connection (23A, 123A) and said neutral connection (23B, 123B), and a third varistor electrically connected between said live connection (23A, 123A) and said neutral connection (23B, 123B) in a parallel configuration with said first varistor and said second varistor; and a surge arrestor (46, 146) electrically connected between said ground connection (23C, 123C) and said series connection between said first varistor and said second varistor. a light source; electronics electrically coupled to and powering said light source; a surge protection device having a housing (20, 120) supporting a live connection (23A, 123A), a neutral connection (23B, 123B), and a ground connection (23C, 123C), at least said live connection (23A, 123A) and said neutral connection (23B, 123B) being electrically coupled to said electronics; said live connection (23A, 123A), said neutral connection (23B, 123B), and said ground connection (23C, 123C) each having a power source input, and said ground connection additionally having a lighting fixture functional ground input; a plurality of varistors (41-43, 141-143) sealingly enclosed within said housing (20, 120), said varistors (41-43, 141-143) including a first varistor and a second varistor electrically connected to one another in a series connection between said live connection (23A, 123A) and said neutral connection (23B, 123B), and a third varistor electrically connected between said live connection (23A, 123A) and said neutral connection (23B, 123B) in a parallel configuration with said first varistor and said second varistor; and a surge arrestor (46, 146) electrically connected between said ground connection (23C, 123C) and said series connection between said first varistor and said second varistor.
A flexible organic light emitting diode (OLED) display device, comprising: an upper module having a cover window film; a lower module; a display module between the upper module and the lower module, the display module including an OLED and an OLED substrate between the OLED and the lower module; and a touch sensor between the OLED and the upper module, wherein the upper module has a first Young's modulus, the lower module has a second Young's module, and the first Young's modulus is different from the second Young's modulus, wherein (LS / TW) > 0.001, where L is a stiffness of the lower module, S is a stiffness of the OLED substrate,, T is a stiffness of the touch sensor, and W is a stiffness of the cover window film. an upper module having a cover window film; a lower module; a display module between the upper module and the lower module, the display module including an OLED and an OLED substrate between the OLED and the lower module; and a touch sensor between the OLED and the upper module, wherein the upper module has a first Young's modulus, the lower module has a second Young's module, and the first Young's modulus is different from the second Young's modulus, wherein (LS / TW) > 0.001, where L is a stiffness of the lower module, S is a stiffness of the OLED substrate,, T is a stiffness of the touch sensor, and W is a stiffness of the cover window film.