mhurhangee/ep-ind-claims huggingface dataset:
A method for cutting a foil comprising or consisting of at least one layer which comprises or consists of a metal, said method comprising the steps of a) providing a means for positioning a foil; b) positioning a foil comprising or consisting of at least one layer, which comprises or consists of a metal, by the means for positioning a foil; c) providing a laser that is suitable for emitting pulsed laser radiation in the direction of the foil; d) emitting pulsed laser radiation from the laser in the direction of the foil; wherein the laser and/or the means for positioning a foil is/are controlled such that pulsed laser radiation, which the laser emits in the direction of the foil onto the foil, cuts through the at least one layer of the foil, characterized in that the laser and/or the means for positioning a foil are controlled in such a way that two consecutive pulses of the laser are not emitted onto the same area of the foil and at least two non-consecutive pulses of the laser are emitted onto the same area of the foil at a time interval which is greater than a pulse pause between two consecutive pulses. a) providing a means for positioning a foil; b) positioning a foil comprising or consisting of at least one layer, which comprises or consists of a metal, by the means for positioning a foil; c) providing a laser that is suitable for emitting pulsed laser radiation in the direction of the foil; d) emitting pulsed laser radiation from the laser in the direction of the foil; wherein the laser and/or the means for positioning a foil is/are controlled such that pulsed laser radiation, which the laser emits in the direction of the foil onto the foil, cuts through the at least one layer of the foil, characterized in that the laser and/or the means for positioning a foil are controlled in such a way that two consecutive pulses of the laser are not emitted onto the same area of the foil and at least two non-consecutive pulses of the laser are emitted onto the same area of the foil at a time interval which is greater than a pulse pause between two consecutive pulses.
Tanxanes compounds having the structure represented by the following general formula I: wherein, R 1 is t -butyloxycarbonyl or N,N'-dimethylcarbamoyl; R 2 is phenyl, or R 3 is -OMe, -OCOOCH 3, or -OCON(CH 3) 2; R 4, -OCOOCH 3, -OCON(CH 3) 2, -OCOSC 2 H 5 or H. R 1 is t -butyloxycarbonyl or N,N'-dimethylcarbamoyl; R 2 is phenyl, or R 3 is -OMe, -OCOOCH 3, or -OCON(CH 3) 2; R 4, -OCOOCH 3, -OCON(CH 3) 2, -OCOSC 2 H 5 or H.
An apparatus, comprising: a line buffer unit (401, 701, 900) for an image processor composed of a plurality of line buffer interface units (904, 1104), each line buffer interface unit (904, 1104) to handle one or more requests by a respective producer to store a respective line group of image data (503, 802, 903) in a memory and handle one or more requests by a respective consumer to fetch and provide the respective line group (503, 802, 903) from memory, wherein each line buffer interface unit (904, 1104) is assigned to handle a particular line group (503, 802, 903), the line buffer unit (401, 701, 900) having programmable storage space (707, 907) whose information establishes line group size so that different line group sizes for different image sizes are storable in memory, wherein said line buffer unit (401, 701, 900) comprises a pool of line buffer interface units and includes control logic circuitry to: enter a particular line buffer interface unit (904, 1104) to a free pool after the particular line buffer interface unit (904, 1104) has serviced its last consumer; and, afterward, assign the particular line buffer interface unit (904, 1104) to another line group (503, 802, 903). enter a particular line buffer interface unit (904, 1104) to a free pool after the particular line buffer interface unit (904, 1104) has serviced its last consumer; and, afterward, assign the particular line buffer interface unit (904, 1104) to another line group (503, 802, 903).
A self adhesive print film comprising: a polymeric layer having an upper surface and a lower surface, the polymeric layer adapted to receive a print media on the upper surface; and an adhesive layer disposed on the lower surface of the polymeric layer; wherein the polymeric layer is formed from a polymer formulation including a low surface energy additive distributed within the polymer layer, wherein the polymeric layer comprises from 0.1 to 10 wt. % of the low surface energy additive, and wherein the low surface energy additive is a silicone-containing material chosen from a siloxane. a polymeric layer having an upper surface and a lower surface, the polymeric layer adapted to receive a print media on the upper surface; and an adhesive layer disposed on the lower surface of the polymeric layer; wherein the polymeric layer is formed from a polymer formulation including a low surface energy additive distributed within the polymer layer, wherein the polymeric layer comprises from 0.1 to 10 wt. % of the low surface energy additive, and wherein the low surface energy additive is a silicone-containing material chosen from a siloxane.
A housing assembly, comprising: a support comprising a peripheral side wall, the peripheral side wall comprising two short walls arranged opposite to each other and two opposite long walls connected between the two short walls, each of the two short walls and each of the two long walls being provided with a lug, the peripheral side wall defining a first accommodating space, and the lugs being connected to an outer peripheral side of the peripheral side wall away from the first accommodating space; and a middle frame having a second accommodating space and a certain number of grooves in communication with the second accommodating space, the number of grooves being the same as the number of lugs, the support being accommodated in the second accommodating space, and the lugs being fitted with the grooves; wherein the middle frame has a position limiting step protruding towards the second accommodating space, and an end surface of the peripheral side wall abuts against the position limiting step; wherein the support further comprises a partition wall connected between the two long walls, wherein the partition wall is configured to divide the first accommodating space into two accommodating sub-spaces (3101, 3102), and wherein the lugs provided to the long walls are disposed facing the partition wall. a support comprising a peripheral side wall, the peripheral side wall comprising two short walls arranged opposite to each other and two opposite long walls connected between the two short walls, each of the two short walls and each of the two long walls being provided with a lug, the peripheral side wall defining a first accommodating space, and the lugs being connected to an outer peripheral side of the peripheral side wall away from the first accommodating space; and a middle frame having a second accommodating space and a certain number of grooves in communication with the second accommodating space, the number of grooves being the same as the number of lugs, the support being accommodated in the second accommodating space, and the lugs being fitted with the grooves; wherein the middle frame has a position limiting step protruding towards the second accommodating space, and an end surface of the peripheral side wall abuts against the position limiting step; wherein the support further comprises a partition wall connected between the two long walls, wherein the partition wall is configured to divide the first accommodating space into two accommodating sub-spaces (3101, 3102), and wherein the lugs provided to the long walls are disposed facing the partition wall.
A medical device for diagnosing a cardiac rhythm during the performance of CPR comprising: a front end operable to obtain two or more time-sequential ECG data sets comprised of a first unfiltered ECG data set and a second unfiltered ECG data set; an input (906, 908) operable to acquire two or more time-sequential CPR reference signal data sets which correspond in time to the time-sequential ECG data sets; a filter in communication with both of the front end and the input, operable to obtain a first filtered ECG data set and a second filtered ECG data set; a shock classifier operable to classify each of the filtered and unfiltered ECG data sets as a "shock" advice or a "no-shock" advice; a comparator operable to generate a decision based on the classified filtered and unfiltered ECG data sets by comparing the advices generated by the shock classifier for each of the filtered and unfiltered ECG data sets; and an output generator for issuing an operational command based on the decision. a front end operable to obtain two or more time-sequential ECG data sets comprised of a first unfiltered ECG data set and a second unfiltered ECG data set; an input (906, 908) operable to acquire two or more time-sequential CPR reference signal data sets which correspond in time to the time-sequential ECG data sets; a filter in communication with both of the front end and the input, operable to obtain a first filtered ECG data set and a second filtered ECG data set; a shock classifier operable to classify each of the filtered and unfiltered ECG data sets as a "shock" advice or a "no-shock" advice; a comparator operable to generate a decision based on the classified filtered and unfiltered ECG data sets by comparing the advices generated by the shock classifier for each of the filtered and unfiltered ECG data sets; and an output generator for issuing an operational command based on the decision.
A composition comprising: a urethane acrylate; an adhesion promoter; and a conductive monomer, the composition being characterized in that the conductive monomer comprises alkoxylated acrylate; the composition further comprising an ionic liquid and having a volume resistivity from 10 6 to 10 10 Ohm·cm after being conditioned for one week at 25 °C and 50% relative humidity. a urethane acrylate; an adhesion promoter; and a conductive monomer, the composition being characterized in that the conductive monomer comprises alkoxylated acrylate; the composition further comprising an ionic liquid and having a volume resistivity from 10 6 to 10 10 Ohm·cm after being conditioned for one week at 25 °C and 50% relative humidity.
Computer-implemented method for communicating direction information to a user, wherein a position and viewing direction of the user are available to the computer, comprising the steps of: - detecting a situation in which direction information is to be communicated to the user, on the basis of the viewing direction of the user, wherein direction information is to be communicated to the user at least when the viewing direction of the user deviates from a target direction in which the user is to move; - determining direction information to be communicated, wherein the direction information indicates the target direction; and - controlling at least one actuator from a group of actuators to generate a haptic signal having a directional characteristic according to the direction information to be communicated; wherein direction information is not communicated to the user if the user moves in the target direction despite a deviating viewing direction. - detecting a situation in which direction information is to be communicated to the user, on the basis of the viewing direction of the user, wherein direction information is to be communicated to the user at least when the viewing direction of the user deviates from a target direction in which the user is to move; - determining direction information to be communicated, wherein the direction information indicates the target direction; and - controlling at least one actuator from a group of actuators to generate a haptic signal having a directional characteristic according to the direction information to be communicated;
DC-DC voltage converter for converting an input DC voltage (U_in) into a predetermined output DC voltage (U_out), comprising: a DC-DC converter which is designed to convert an input DC voltage (U_in) into the output DC voltage (U_out), and a comparison means which is designed to provide a controlled variable, based on a comparison of a value of the output DC voltage (U_out) of the DC-DC voltage converter with a predetermined setpoint voltage value (U_setpoint) for the output DC voltage (U_out); characterized by a correction means which is designed to adjust a value of the input DC voltage (U_in) of the DC-DC voltage converter, based on a previously determined correction function, and to output the value (U_in,cor) of the adjusted input DC voltage; wherein the correction means is furthermore designed to receive the first controlled variable and to adjust the correction function if the first controlled variable is detected in a stationary mode; a regulating means which is designed to compare the value (U_in,cor) of the adjusted input DC voltage and the predetermined setpoint voltage value (U_setpoint) for the output DC voltage (U_out) with one another and to calculate an additional controlled variable therefrom; and a calculating means which is designed to calculate a regulator value from the controlled variable of the comparison means and the additional controlled variable of the regulating means; wherein the DC-DC converter is designed to convert the input DC voltage (U_in) into the output DC voltage (U_out) based on the regulator value calculated by the calculating means. a DC-DC converter which is designed to convert an input DC voltage (U_in) into the output DC voltage (U_out), and a comparison means which is designed to provide a controlled variable, based on a comparison of a value of the output DC voltage (U_out) of the DC-DC voltage converter with a predetermined setpoint voltage value (U_setpoint) for the output DC voltage (U_out); characterized by a correction means which is designed to adjust a value of the input DC voltage (U_in) of the DC-DC voltage converter, based on a previously determined correction function, and to output the value (U_in,cor) of the adjusted input DC voltage; wherein the correction means is furthermore designed to receive the first controlled variable and to adjust the correction function if the first controlled variable is detected in a stationary mode; a regulating means which is designed to compare the value (U_in,cor) of the adjusted input DC voltage and the predetermined setpoint voltage value (U_setpoint) for the output DC voltage (U_out) with one another and to calculate an additional controlled variable therefrom; and a calculating means which is designed to calculate a regulator value from the controlled variable of the comparison means and the additional controlled variable of the regulating means; wherein the DC-DC converter is designed to convert the input DC voltage (U_in) into the output DC voltage (U_out) based on the regulator value calculated by the calculating means.
Drawer front connecting device for the connection of a drawer front to a drawer side part (17, 18), comprising a front connector which can be attached to the drawer side part (17, 18) and a mounting component which can be attached to the drawer front, wherein the mounting component can be fixed to the front connector in order to establish a connected state of the drawer front to the drawer side part (17, 18), characterized in that the front connector has at least two connector plates (26, 27) which are oriented in a parallel manner and connected to one another and which are spaced apart from one another in a width direction of the front connector, wherein the front connector has an upper ramp and a lower ramp which are spaced apart from one another in a height direction of the front connector, wherein the upper ramp comprises an upper narrow side of a first connector plate and an upper narrow side of a second connector plate, wherein the two upper narrow sides (33a, 33b) lie in a common upper plane, and wherein the lower ramp comprises a lower narrow side of the first connector plate and a lower narrow side of the second connector plate, wherein the two lower narrow sides (34a, 34b) lie in a common lower plane, such that, for a fixing of the mounting component to the front connector, the two upper narrow sides (33a, 33b) of the upper ramp provide a two-track support surface for an upper supporting portion on the mounting component and the two lower narrow sides (34a, 34b) of the lower ramp provide a two-track support surface for a lower supporting portion on the mounting component if the mounting component is arranged on the front connector in a positionally correct manner, such that a displacement of the upper supporting portion and of the lower supporting portion along the respective ramp (33, 34) takes place during the connecting of the drawer front to the drawer side part (17, 18), wherein a run-on bevel is arranged upstream of the upper ramp, the inclination of said run-on bevel in a profile direction being oriented in an angular manner with respect to the inclination in the profile direction of the upper narrow sides (33a, 33b), wherein the run-on bevel leads up to the beginning of the upper ramp, with an inverse inclination relative to the inclination of the ramp, wherein the ramp and the run-on bevel form a pitched roof form, wherein the ramp forms one roof side and the run-on bevel forms the other roof side, up to a highest point in the contact region of the ramp to the run-on bevel.
A pipe and coupler assembly made of polyvinyl chloride, the assembly comprising: a pipe having a first end, wherein at least a portion of an outer surface of the first end is provided with a plurality of outer threads; a coupler, comprising, a first coupling end and a second coupling end having a plurality of inner threads in an inner surface, divided by a flat portion, wherein, the first end of the pipe is configured to be coupled to the first coupling end; a locking means inserted in a first annular groove, formed between the first coupling end and the first end of the pipe, the locking means is configured to lock the first end of the pipe with the first coupling end; a second annular groove defined in the flat portion of the coupler, the assembly being characterized in that the second annular groove is defined with a substantially flat bottom portion with curved ends, wherein a width of the second annular groove is greater than pitch of the plurality of the inner square shaped threads; and a first multi-lip sealing ring accommodated in the second groove to form a fluid seal between the first end of the pipe and the first coupling end of the coupler. a pipe having a first end, wherein at least a portion of an outer surface of the first end is provided with a plurality of outer threads; a coupler, comprising, a first coupling end and a second coupling end having a plurality of inner threads in an inner surface, divided by a flat portion, wherein, the first end of the pipe is configured to be coupled to the first coupling end; a locking means inserted in a first annular groove, formed between the first coupling end and the first end of the pipe, the locking means is configured to lock the first end of the pipe with the first coupling end; a second annular groove defined in the flat portion of the coupler, the assembly being characterized in that the second annular groove is defined with a substantially flat bottom portion with curved ends, wherein a width of the second annular groove is greater than pitch of the plurality of the inner square shaped threads; and a first multi-lip sealing ring accommodated in the second groove to form a fluid seal between the first end of the pipe and the first coupling end of the coupler.
Resistance welding method in which - a metallic conductor is welded to a metallic terminal, wherein - the metallic terminal is placed with a first surface onto a first electrode, - the metallic conductor is placed on a bottom of a recess, wherein the recess is arranged in a second surface opposite the first surface, characterized in that - at least two side sliders are placed on the second surface lateral of the recess wherein a distance is formed between an edge of the recess and a surface of the side sliders facing the conductor, and wherein the side slides are moved in parallel to the second surface over the second surface into the region of the edge of the recess, a second electrode is moved in the direction of the first electrode onto the conductor, and - the conductor is welded to the terminal in the region of the recess by means of a current flowing between the first and the second electrode (8, 10), wherein the side walls of the recess form a boundary for the material of the conductor which is plasticized by the welding operation, and the side sliders do not come into contact with the plasticized material. - a metallic conductor is welded to a metallic terminal, wherein - the metallic terminal is placed with a first surface onto a first electrode, - the metallic conductor is placed on a bottom of a recess, wherein the recess is arranged in a second surface opposite the first surface, characterized in that - at least two side sliders are placed on the second surface lateral of the recess wherein a distance is formed between an edge of the recess and a surface of the side sliders facing the conductor, and wherein the side slides are moved in parallel to the second surface over the second surface into the region of the edge of the recess, a second electrode is moved in the direction of the first electrode onto the conductor, and - the conductor is welded to the terminal in the region of the recess by means of a current flowing between the first and the second electrode (8, 10), wherein the side walls of the recess form a boundary for the material of the conductor which is plasticized by the welding operation, and the side sliders do not come into contact with the plasticized material.
Carbonaceous substance-coated graphite particles comprising graphite particles and carbonaceous coating, which carbonaceous coating covers at least part of surfaces of the graphite particles, wherein a particle diameter D 50 is 3.0 to 20.0 μm, wherein a specific surface area determined by the BET method is 4.0 to 15.0 m 2 /g, wherein a pore specific surface area SAa of pores having pore sizes of 1 to 4 nm determined by the BJH method is 1.85 to 12.50 m 2 /g, and wherein a ratio of a pore specific surface area SAb of pores having pore sizes of 4 to 150 nm determined by the BJH method to the pore specific surface area SAa (SAb/SAa) is 0.20 to 1.29, and wherein the carbonaceous coating is formed using a xylene-modified novolac-type phenolic resin. wherein a particle diameter D 50 is 3.0 to 20.0 μm, wherein a specific surface area determined by the BET method is 4.0 to 15.0 m 2 /g, wherein a pore specific surface area SAa of pores having pore sizes of 1 to 4 nm determined by the BJH method is 1.85 to 12.50 m 2 /g, and wherein a ratio of a pore specific surface area SAb of pores having pore sizes of 4 to 150 nm determined by the BJH method to the pore specific surface area SAa (SAb/SAa) is 0.20 to 1.29, and wherein the carbonaceous coating is formed using a xylene-modified novolac-type phenolic resin.