mhurhangee/ep-ind-claims huggingface dataset:
Method for displaying and processing safety-critical information for traffic management and control centres with at least one screen, in which a) a traffic signal is provided, wherein the traffic signal is provided as a sequence of successively recorded digital images, and b) the traffic signal is processed by a first application and displayed on a screen, wherein the first application occupies a predetermined screen area, c) at least one further application (12, 13) is provided which has a user interface that has or occupies a screen area that is identical to or overlaps with the first application, and d) the further application (12, 13) is superimposed on the first application, such that the user interface of the further application (12, 13) covers the first application, characterised in that e) the further application (12, 13) is designed to be transparent in at least one image area of the screen area it occupies, such that the respective traffic signal displayed by the first application is displayed, wherein a graphical user interface of the first application is displayed and can be operated. a) a traffic signal is provided, wherein the traffic signal is provided as a sequence of successively recorded digital images, and b) the traffic signal is processed by a first application and displayed on a screen, wherein the first application occupies a predetermined screen area, c) at least one further application (12, 13) is provided which has a user interface that has or occupies a screen area that is identical to or overlaps with the first application, and d) the further application (12, 13) is superimposed on the first application, such that the user interface of the further application (12, 13) covers the first application, characterised in that e) the further application (12, 13) is designed to be transparent in at least one image area of the screen area it occupies, such that the respective traffic signal displayed by the first application is displayed, wherein a graphical user interface of the first application is displayed and can be operated.
A sweat collection device (80, 124, 150) comprising: a flexible body formed from five layers (12, 14, 16, 18, 20) of material bonded together and having a first, outwardly facing surface (22, 81, 152) and a second, skinfacing surface; a sweat collection channel formed in the body, the sweat collection channel having a first end defining a sweat inlet port (116, 142, 162), and a second end (38, 64) defining a sweat outlet port (96, 97a, 97b); wherein the sweat collection channel is formed in one of three inner layers (14, 16, 18) of the five layers ((12, 14, 16, 18, 20) or in a plurality of any of the three inner layers (14, 16, 18) of the five layers ((12, 14, 16, 18, 20); and a flexible fluidics tail defining an outlet member (94, 95) at the second end (38, 64) of the sweat collection channel and defining the sweat outlet port (96, 97a, 97b) at a distal end thereof, the outlet member (94, 95) extending outwardly from a peripheral edge of the flexible body, and the sweat collection channel extending through the outlet member (94, 95) to the sweat outlet port (96, 97a, 97b); wherein the sweat inlet port (116, 142, 162) and the sweat outlet port (96, 97a, 97b) are configured to be closed and sealed such that the sweat collection device (80, 124, 150) and the collected sweat therein may be stored and shipped. a flexible body formed from five layers (12, 14, 16, 18, 20) of material bonded together and having a first, outwardly facing surface (22, 81, 152) and a second, skinfacing surface; a sweat collection channel formed in the body, the sweat collection channel having a first end defining a sweat inlet port (116, 142, 162), and a second end (38, 64) defining a sweat outlet port (96, 97a, 97b); wherein the sweat collection channel is formed in one of three inner layers (14, 16, 18) of the five layers ((12, 14, 16, 18, 20) or in a plurality of any of the three inner layers (14, 16, 18) of the five layers ((12, 14, 16, 18, 20); and a flexible fluidics tail defining an outlet member (94, 95) at the second end (38, 64) of the sweat collection channel and defining the sweat outlet port (96, 97a, 97b) at a distal end thereof, the outlet member (94, 95) extending outwardly from a peripheral edge of the flexible body, and the sweat collection channel extending through the outlet member (94, 95) to the sweat outlet port (96, 97a, 97b); wherein the sweat inlet port (116, 142, 162) and the sweat outlet port (96, 97a, 97b) are configured to be closed and sealed such that the sweat collection device (80, 124, 150) and the collected sweat therein may be stored and shipped.
A method for operating a gaseous fuel internal combustion engine comprising a plurality of cylinder units (26A-26D), the gaseous fuel internal combustion engine being configured to selectively activate and deactivate the cylinder units (26A-26D), the method comprising: determining (step 302) an in-cylinder pressure value of at least one activated cylinder unit (26A-26D), the in-cylinder pressure value being an in-cylinder pressure value of an individual activated cylinder unit or an average in-cylinder pressure value of a plurality of activated cylinder units; and setting (steps 314, 318) a number of activated cylinder units (26A-26D) directly based on the determined in-cylinder pressure value, comprising activating (step 314) a deactivated cylinder unit of the plurality of the cylinder units (26A-26D) if the determined in-cylinder pressure value is above an activation threshold, and deactivating (step 318) an activated cylinder unit of the plurality of cylinder units (26A-26D) if the determined in-cylinder pressure value is below a deactivation threshold, wherein the activation threshold and the deactivation threshold are variable and depend on at least one of an ambient temperature and an intake air temperature. determining (step 302) an in-cylinder pressure value of at least one activated cylinder unit (26A-26D), the in-cylinder pressure value being an in-cylinder pressure value of an individual activated cylinder unit or an average in-cylinder pressure value of a plurality of activated cylinder units; and setting (steps 314, 318) a number of activated cylinder units (26A-26D) directly based on the determined in-cylinder pressure value, comprising activating (step 314) a deactivated cylinder unit of the plurality of the cylinder units (26A-26D) if the determined in-cylinder pressure value is above an activation threshold, and deactivating (step 318) an activated cylinder unit of the plurality of cylinder units (26A-26D) if the determined in-cylinder pressure value is below a deactivation threshold, activating (step 314) a deactivated cylinder unit of the plurality of the cylinder units (26A-26D) if the determined in-cylinder pressure value is above an activation threshold, and deactivating (step 318) an activated cylinder unit of the plurality of cylinder units (26A-26D) if the determined in-cylinder pressure value is below a deactivation threshold, wherein the activation threshold and the deactivation threshold are variable and depend on at least one of an ambient temperature and an intake air temperature.
Surgical implant, comprising an areal, flexible, mesh-like basic structure including a knitted fabric made in gallon crotcheting technique, in which mesh pores are formed from chains made in closed pillar stitch, wherein adjacent chains (11, 11') are connected to each other, by at least one inlaying weft thread (16, 18), in sections forming a respective common side of two adjacent mesh pores (14, 14'), characterized in that the inlaying weft thread (16, 18), in the region of said common side, runs in at least three loop courses (17, 17', 17", 19, 19', 19") such that the inlaying weft thread (16, 18) passes through both of the adjacent chains (11, 11') of the adjacent mesh pores at least four times in the respective common side.
A cleaning agent, containing a) at least one protease comprising an amino acid sequence which is at least 95% identical to the amino acid sequence specified in SEQ ID NO. 1 over the entire length thereof and has, in the numbering according to SEQ ID NO. 1, the amino acid substitution R99E in combination with S3T, V4I and V199I, b) 4-formylphenylboronic acid, c) at least one further enzyme which is from the group of amylases and is different from the protease a). a) at least one protease comprising an amino acid sequence which is at least 95% identical to the amino acid sequence specified in SEQ ID NO. 1 over the entire length thereof and has, in the numbering according to SEQ ID NO. 1, the amino acid substitution R99E in combination with S3T, V4I and V199I, b) 4-formylphenylboronic acid, c) at least one further enzyme which is from the group of amylases and is different from the protease a).
Composition comprising roasted chicory root for use in the prevention or treatment of a loss of cognitive ability, wherein the chicory is provided in the form of an extract, wherein the extract is obtainable from an ethyl-acetate or ethanol/water extraction of the chicory.
An electrode drying system comprising: a drying oven configured to dry a solvent in an electrode active material slurry on an electrode sheet in which the electrode active material slurry is applied to a current collector; an air supply member configured to supply air to the drying oven; and a ventilation member configured to discharge air from the drying oven, wherein at least part of air discharged from the ventilation member is introduced into the air supply member again; wherein the air supply member and the ventilation member communicate with each other; and wherein the electrode drying system further comprises a drain member provided between the ventilation member and the air supply member, characterized in that the drain member is provided in a drain duct inclined downward from the ventilation member and inclined downward from the air supply member. a drying oven configured to dry a solvent in an electrode active material slurry on an electrode sheet in which the electrode active material slurry is applied to a current collector; an air supply member configured to supply air to the drying oven; and a ventilation member configured to discharge air from the drying oven, wherein at least part of air discharged from the ventilation member is introduced into the air supply member again; wherein the air supply member and the ventilation member communicate with each other; and wherein the electrode drying system further comprises a drain member provided between the ventilation member and the air supply member,
An operation panel, comprising: a first board having a first surface, a first groove being formed at each of four positions of the first surface, the four positions comprising two positions on each of two opposing peripheral parts of the first surface; a second board having a second surface, a second groove being formed at each of four positions in peripheral parts of the second surface; four load sensors, the four load sensors consisting of one load sensor corresponding to, and provided between, each of the four positions in the peripheral part of the second surface of the second board and a respective corresponding one of the four positions of the first surface of the second board, wherein each of the load sensors detects magnitude of a force applied to the first board; four clips, each of the four clips each being an angular U-letter shape and configured to hold together the first board and the second board at a respective one of the four first grooves formed in the first board and the second groove formed at the respective corresponding position in the second board with the load sensor corresponding to the positions of the first and second grooves held between the first and second boards at said grooves, and four screws, the four screws consisting of one screw inserted into a screw hole formed in one end part of the angular U-letter shape of each of the four clips, wherein a thickness of a stack of the first board, the second board, and the load sensor that are held together with the clip is adjustable by the screw. a first board having a first surface, a first groove being formed at each of four positions of the first surface, the four positions comprising two positions on each of two opposing peripheral parts of the first surface; a second board having a second surface, a second groove being formed at each of four positions in peripheral parts of the second surface; four load sensors, the four load sensors consisting of one load sensor corresponding to, and provided between, each of the four positions in the peripheral part of the second surface of the second board and a respective corresponding one of the four positions of the first surface of the second board, wherein each of the load sensors detects magnitude of a force applied to the first board; four clips, each of the four clips each being an angular U-letter shape and configured to hold together the first board and the second board at a respective one of the four first grooves formed in the first board and the second groove formed at the respective corresponding position in the second board with the load sensor corresponding to the positions of the first and second grooves held between the first and second boards at said grooves, and four screws, the four screws consisting of one screw inserted into a screw hole formed in one end part of the angular U-letter shape of each of the four clips, wherein a thickness of a stack of the first board, the second board, and the load sensor that are held together with the clip is adjustable by the screw.
An energy transfer system with at least one first heat exchanger (3a, 3b), at least one buffer tank that is connected to the first heat exchanger via conduits (6a, 6b), at least one second heat exchanger (9, 10, 11) that is connected to the buffer tank via conduits (8a, 8b), and at least one pump that is designed for conveying a heat transfer medium through the at least one first heat exchanger (3a, 3b) in order to heat the heat transfer medium, for conveying the heat transfer medium into the buffer tank after it has been heated, for conveying the heat transfer medium through the at least one second heat exchanger (9, 10, 11) in order to cool the heat transfer medium, and for conveying the heat transfer medium into the buffer tank after it has been cooled, wherein the at least one second heat exchanger (9, 10, 11) is a heater that can be assigned to a room or a system with a heat sink, characterized in that the at least one first heat exchanger is a cooling convector (3a, 3b) that can be assigned to a room with a waste heat source and by means of which an air movement caused by an air density change can be realized.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, configuration including information indicating whether a plurality of power headrooms for multiple transmission and reception points, TRPs, is to be reported; identifying a power headroom report, PHR, including the plurality of power headrooms for the multiple TRPs in case that the information indicates that the plurality of power headrooms for the multiple TRPs is to be reported, a cell being associated with the multiple TRPs; and transmitting, to the base station, the PHR including the plurality of power headrooms for the multiple TRPs. receiving, from a base station, a radio resource control, RRC, configuration including information indicating whether a plurality of power headrooms for multiple transmission and reception points, TRPs, is to be reported; identifying a power headroom report, PHR, including the plurality of power headrooms for the multiple TRPs in case that the information indicates that the plurality of power headrooms for the multiple TRPs is to be reported, a cell being associated with the multiple TRPs; and transmitting, to the base station, the PHR including the plurality of power headrooms for the multiple TRPs.
A current device readout system comprising: a tunable resonator having a resonant frequency that is associated with a current state of a current device, the tunable resonator being configured to receive a tone signal having a predetermined frequency from a feedline to determine the current state of the current device; and an isolation device configured as a quantum flux parametron, QFP, inductively interconnecting the tunable resonator and the current device, the QFP being tunable based on a static flux to set a threshold to facilitate amplification of the current state of the current device, wherein the QFP is configured to isolate the current device in a first state and the tunable resonator and is configured to provide an amplified current state of the current device in a second state to the tunable resonator to facilitate the determination of the current state of the current device in the second state. a tunable resonator having a resonant frequency that is associated with a current state of a current device, the tunable resonator being configured to receive a tone signal having a predetermined frequency from a feedline to determine the current state of the current device; and an isolation device configured as a quantum flux parametron, QFP, inductively interconnecting the tunable resonator and the current device, the QFP being tunable based on a static flux to set a threshold to facilitate amplification of the current state of the current device, wherein the QFP is configured to isolate the current device in a first state and the tunable resonator and is configured to provide an amplified current state of the current device in a second state to the tunable resonator to facilitate the determination of the current state of the current device in the second state.
Mechanical timepiece movement with running reserve indication, comprising at least one barrel system with a winding output connected to a winding wheel of a differential gear, and with an unwinding output connected to an unwinding wheel of the differential gear, the movement including a locking wheel set driven in rotation by an intermediate wheel of the differential gear, the locking wheel set being connected to a running reserve indicator to display the running reserve, the locking wheel set including a locking element for coming into contact with the unwinding wheel of the differential gear, when the running reserve indicator indicates zero in order to lock the timepiece movement, and characterized in that the locking wheel set includes a first wheel fixed on the axis of rotation of the locking wheel set and in direct contact with the intermediate wheel of the differential gear to be driven in rotation.
A can end for a two-piece container, comprising: a seamable can end having an upper surface, a lower surface, and a formed edge curl around its perimeter; a breachable seal (603, 944, 977) positioned over an aperture in the can end; a heater affixed to the lower surface of the can end; and a consumer user interface attached to the upper surface of the can end; characterised in that the consumer user interface includes a cam that sequentially engages the heater to initiate an exothermic reaction and also sequentially engages the breachable seal (603, 944, 977) to create a passageway through the can end. a seamable can end having an upper surface, a lower surface, and a formed edge curl around its perimeter; a breachable seal (603, 944, 977) positioned over an aperture in the can end; a heater affixed to the lower surface of the can end; and a consumer user interface attached to the upper surface of the can end; characterised in that the consumer user interface includes a cam that sequentially engages the heater to initiate an exothermic reaction and also sequentially engages the breachable seal (603, 944, 977) to create a passageway through the can end.
Recoil valve, in particular for the trigger capsule for the gas generator of a passenger restraint system in an automotive vehicle having a pot-shaped upper part with a boring, a diaphragm spring with a conical valve seat and at least 3 recesses on the circumference and a pot-shaped lower part with a conical valve seat, the lower part equipped with the diaphragm spring being securely connected to the upper part by a circumferential weld seam, after insertion into the upper part against limit stop.
A medium transport system for indicating a medium jam along a medium transport path, comprising (a) one or more rollers (120, 140) configured to convey the medium along the medium transport path; (b) a microphone configured to detect a sound of the medium being conveyed along the medium transport path, and configured to produce a signal representing the sound; characterized by (c) a processor configured to produce sound values from the signal and: (i) wherein the processor is configured to compute a moving window sum responsive to the sound values; (ii) wherein the processor is configured to compute a high amplitude count responsive to the sound values; (iii) wherein the processor is configured to compute a post roller sum responsive to the sound values; and (d) the medium transport system being configured to indicate the medium jam responsive to the moving window sum, high amplitude count, or post roller sum. (a) one or more rollers (120, 140) configured to convey the medium along the medium transport path; (b) a microphone configured to detect a sound of the medium being conveyed along the medium transport path, and configured to produce a signal representing the sound; characterized by (c) a processor configured to produce sound values from the signal and: (i) wherein the processor is configured to compute a moving window sum responsive to the sound values; (ii) wherein the processor is configured to compute a high amplitude count responsive to the sound values; (iii) wherein the processor is configured to compute a post roller sum responsive to the sound values; and (i) wherein the processor is configured to compute a moving window sum responsive to the sound values; (ii) wherein the processor is configured to compute a high amplitude count responsive to the sound values; (iii) wherein the processor is configured to compute a post roller sum responsive to the sound values; and (d) the medium transport system being configured to indicate the medium jam responsive to the moving window sum, high amplitude count, or post roller sum.