mhurhangee/ep-ind-claims huggingface dataset:
An outboard propulsion system comprising: a first portion for attachment to a boat comprising a stern, the first portion comprising an engine including a crankshaft; and a second portion comprising at least one propeller shaft (6, 106) having a longitudinal axis along the elongate length of the at least one propeller shaft (6, 106), wherein the at least one propeller shaft (6, 106) is operably connected to the crankshaft via at least one drive shaft (12, 13, 14) configured to transmit motive power therebetween, wherein the at least one drive shaft (12, 13, 14) comprises a drop shaft and wherein the drop shaft is substantially perpendicular to the at least one propeller shaft (6, 106), wherein the second portion is configured to pivot relative to the first portion about a steering axis, wherein the steering axis intersects the longitudinal axis of the at least one propeller shaft (6, 106) at an obtuse angle (β), characterised in that the first portion and second portion are configured to tilt together about a single axis of rotation substantially parallel to the stern of the boat, and wherein the first portion is fixed about a substantially vertical axis. a first portion for attachment to a boat comprising a stern, the first portion comprising an engine including a crankshaft; and a second portion comprising at least one propeller shaft (6, 106) having a longitudinal axis along the elongate length of the at least one propeller shaft (6, 106), wherein the at least one propeller shaft (6, 106) is operably connected to the crankshaft via at least one drive shaft (12, 13, 14) configured to transmit motive power therebetween, wherein the at least one drive shaft (12, 13, 14) comprises a drop shaft and wherein the drop shaft is substantially perpendicular to the at least one propeller shaft (6, 106), wherein the second portion is configured to pivot relative to the first portion about a steering axis, wherein the steering axis intersects the longitudinal axis of the at least one propeller shaft (6, 106) at an obtuse angle (β), characterised in that the first portion and second portion are configured to tilt together about a single axis of rotation substantially parallel to the stern of the boat, and wherein the first portion is fixed about a substantially vertical axis. wherein the at least one propeller shaft (6, 106) is operably connected to the crankshaft via at least one drive shaft (12, 13, 14) configured to transmit motive power therebetween, wherein the at least one drive shaft (12, 13, 14) comprises a drop shaft and wherein the drop shaft is substantially perpendicular to the at least one propeller shaft (6, 106), wherein the second portion is configured to pivot relative to the first portion about a steering axis, wherein the steering axis intersects the longitudinal axis of the at least one propeller shaft (6, 106) at an obtuse angle (β), characterised in that the first portion and second portion are configured to tilt together about a single axis of rotation substantially parallel to the stern of the boat, and wherein the first portion is fixed about a substantially vertical axis.
A process for loading particulate material into at least one narrow vertical container (1,1') having an internal diameter of at most 300 mm and having an opening to the outside in its bottom part, which comprises inducing an upflow of air through said container, and loading said particulate material into the container from the upper part thereof in such a way that said particulate material falls downwardly counter currently to said upflow of air, characterized in that no physical device or air-supplying conduit is present inside the inner section of the container (1,1') to be filled when the particulate material is loaded, and said upflowing air is sourced from the bottom opening of the container and is induced by sucking air from the upper part of the container using a vacuum system.
A board work management device for managing a production line that is configured to produce electronic-component-mounted-boards on which electronic components are mounted by multiple work machines (8a to 8e) each being set to perform specified work with respect to the board, with each of multiple of the boards being conveyed sequentially to each of the multiple board work machines (8a to 8e), and each of the multiple board work machines are configured to perform their respective work on each of the multiple boards, the board work management device comprising: a board work quantity reset switch; a board work quantity counting section configured to count each board on which, from among the multiple board work machines (8a to 8e), at least one board work machine has performed work, for each of the at least one board work machines; a board work quantity memory section configured to memorize the board work quantity of the board work machine counted by the board work quantity counting section; and a board work quantity resetting section configured to, when the board work quantity reset switch is operated, reset the board work quantity of a specified board work machine among the at least one board work machines memorized by the board work quantity memory section while the multiple board work machines (8a to 8e) are operating; the board work management device is characterized in that: the board work quantity reset section, in a case in which the board work quantity reset switch is operated, when work is being performed on the board by a reference board work machine that is pre-selected from the multiple board work machines (8a to 8e), is configured to reset the board work quantity of the specified board work machine memorized by the board work quantity memory section when the board on which work is being performed by the reference board work machine is unloaded from the reference board work machine. a board work quantity reset switch; a board work quantity counting section configured to count each board on which, from among the multiple board work machines (8a to 8e), at least one board work machine has performed work, for each of the at least one board work machines; a board work quantity memory section configured to memorize the board work quantity of the board work machine counted by the board work quantity counting section; and a board work quantity resetting section configured to, when the board work quantity reset switch is operated, reset the board work quantity of a specified board work machine among the at least one board work machines memorized by the board work quantity memory section while the multiple board work machines (8a to 8e) are operating;
A touch circuit, configured to: output a panel driving signal (PDS1, PDS2, PDS3); and receive a pen information signal (PINFO), output from a pen in response to the panel driving signal (PDS1, PDS2, PDS3), each of the panel driving signal (PDS1, PDS2, PDS3) and the pen information signal (PINFO) comprising a plurality of pulses, the pen information signal (PINFO) including an in-phase state section comprising pulses in phase with the pulses of the panel driving signal (PDS1, PDS2, PDS3); an antiphase state section comprising pulses having a different phase from the pulses of the panel driving signal (PDS1, PDS2, PDS3); a passive state section distinguished from the in-phase state section and the antiphase state section, wherein the passive state section is one of a ground voltage section and a DC voltage section; wherein each of the pulses in the pen information signal (PINFO) has a variable duty ratio and a predetermined amplitude; and the touch circuit further configured to output a digital value corresponding to the pen information signal (PINFO). output a panel driving signal (PDS1, PDS2, PDS3); and receive a pen information signal (PINFO), output from a pen in response to the panel driving signal (PDS1, PDS2, PDS3), each of the panel driving signal (PDS1, PDS2, PDS3) and the pen information signal (PINFO) comprising a plurality of pulses, the pen information signal (PINFO) including an in-phase state section comprising pulses in phase with the pulses of the panel driving signal (PDS1, PDS2, PDS3); an antiphase state section comprising pulses having a different phase from the pulses of the panel driving signal (PDS1, PDS2, PDS3); a passive state section distinguished from the in-phase state section and the antiphase state section, wherein the passive state section is one of a ground voltage section and a DC voltage section; wherein each of the pulses in the pen information signal (PINFO) has a variable duty ratio and a predetermined amplitude; and the touch circuit further configured to output a digital value corresponding to the pen information signal (PINFO).
A lighting device comprising a lighting unit comprising a plurality of light emitting diodes configured to emit light and a control unit configured to control the light emitted by the lighting unit, wherein the control unit is configured to change the intensity of the light emitted by the lighting unit at least from a high setting to a mid setting thereby decreasing the color temperature, and from said mid setting to a low setting thereby increasing the color temperature and/or vice versa, wherein the intensity of the high setting is greater than the intensity of the mid setting, wherein the intensity of the mid setting is greater than the intensity of the low setting, and wherein the low setting and the high setting each gives a higher color temperature of the light emitted by the lighting unit than the mid setting; and - wherein the control unit is operable to simultaneously and gradually change the intensity and color temperature of the light emitted by the lighting unit between said three settings characterised in that - the color temperature of the low setting is greater than the color temperature of the high setting, and - the control unit is configured to stop decreasing and start increasing the color temperature of the light emitted by the lighting unit, while gradually changing the intensity, at a breakpoint lumen output of the lighting unit wherein the color temperature has a minimum. - wherein the control unit is operable to simultaneously and gradually change the intensity and color temperature of the light emitted by the lighting unit between said three settings - the color temperature of the low setting is greater than the color temperature of the high setting, and -
A method for digitally quantifying enzyme molecules, the method comprising: forming a plurality of fluid partitions each comprising a maximum of one enzyme molecule and one or more fluorogenic substrates in a microfluidic channel, wherein the one or more fluorogenic substrates comprise a detectable fluorescent label; conducting an enzymatic reaction in at least one of the fluid partitions, wherein the detectable fluorescent label is released to produce a localized fluorescent signal; distinguishing reaction-positive fluid partitions from reaction-negative fluid partitions based on a presence of the localized fluorescent signal; and quantifying the enzyme molecules by determining a number of reaction-positive fluid partitions. forming a plurality of fluid partitions each comprising a maximum of one enzyme molecule and one or more fluorogenic substrates in a microfluidic channel, wherein the one or more fluorogenic substrates comprise a detectable fluorescent label; conducting an enzymatic reaction in at least one of the fluid partitions, wherein the detectable fluorescent label is released to produce a localized fluorescent signal; distinguishing reaction-positive fluid partitions from reaction-negative fluid partitions based on a presence of the localized fluorescent signal; and quantifying the enzyme molecules by determining a number of reaction-positive fluid partitions.
Apparatus for heating bottled bottles from a filling temperature of about 0oC to a temperature of about 25oC, comprising a casing, provided with an inlet opening and an outlet opening, a heating zone being provided inside said casing for heating said bottles, and a conveying line (9,5,13), which enters said casing through said inlet opening, passes through said heating zone and leaves said casing through said outlet opening, characterized in that said conveying line comprises a conveyor belt comprising a plurality of differently oriented sections (5a-5h) joined to one another through junctions (6a-6g), said sections providing for a meandering path in said heating zone, and in that infrared lamps (19a,19b) are arranged along said sections (5a-5h) of said conveyor belt in said heating zone for heating said bottled bottles from a temperature of about 0°C to a temperature of about 25°C.
A method for improving reception of a downlink shared transport channel in a wireless communications system, the method comprising: receiving a MAC protocol data unit, named PDU hereinafter, transmitted on a broadcast control channel mapped to a downlink shared transport channel; characterized by utilizing a Broadcast Control Channel, BCCH, specific radio network temporary identifier for monitoring a Shared Control Channel, SCCH, for the reception of the MAC PDU; and obtaining a MAC service data unit, named SDU hereinafter, from the MAC PDU, assuming the MAC PDU comprises no header fields, wherein the MAC SDU corresponds to a system information broadcast message. receiving a MAC protocol data unit, named PDU hereinafter, transmitted on a broadcast control channel mapped to a downlink shared transport channel; characterized by utilizing a Broadcast Control Channel, BCCH, specific radio network temporary identifier for monitoring a Shared Control Channel, SCCH, for the reception of the MAC PDU; and obtaining a MAC service data unit, named SDU hereinafter, from the MAC PDU, assuming the MAC PDU comprises no header fields, wherein the MAC SDU corresponds to a system information broadcast message.
A light detection device comprising: a Fabry-Perot interference filter having a first mirror and a second mirror with a variable distance therebetween and provided with a light transmitting region transmitting light corresponding to the distance between the first mirror and the second mirror on a predetermined line; a light detector disposed on one side with respect to the Fabry-Perot interference filter on the line and configured to detect light transmitted through the light transmitting region; a package having an opening positioned on the other side with respect to the Fabry-Perot interference filter on the line and configured to accommodate the Fabry-Perot interference filter and the light detector; and a temperature control element thermally connected to the Fabry-Perot interference filter and the light detector, wherein the light detector is disposed on a bottom surface of a recessed portion formed in the package, the Fabry-Perot interference filter is disposed on a bottom surface of a widened portion formed in the package so as to be positioned on the other side with respect to the recessed portion, and the temperature control element is embedded in at least a part of a wall portion of the package, the part corresponding to the bottom surface of the recessed portion. a Fabry-Perot interference filter having a first mirror and a second mirror with a variable distance therebetween and provided with a light transmitting region transmitting light corresponding to the distance between the first mirror and the second mirror on a predetermined line; a light detector disposed on one side with respect to the Fabry-Perot interference filter on the line and configured to detect light transmitted through the light transmitting region; a package having an opening positioned on the other side with respect to the Fabry-Perot interference filter on the line and configured to accommodate the Fabry-Perot interference filter and the light detector; and a temperature control element thermally connected to the Fabry-Perot interference filter and the light detector, wherein the light detector is disposed on a bottom surface of a recessed portion formed in the package, the Fabry-Perot interference filter is disposed on a bottom surface of a widened portion formed in the package so as to be positioned on the other side with respect to the recessed portion, and the temperature control element is embedded in at least a part of a wall portion of the package, the part corresponding to the bottom surface of the recessed portion.
A wind turbine, with a tower, a nacelle on the tower, wherein the nacelle has a nacelle floor with a first and second opening (311,312), wherein the first opening has dimensions that allow first components to be passed through, wherein the second opening is larger than the first opening, and a transformer with a transformer floor inside of the nacelle, wherein the second opening has dimensions that allow the transformer to be passed through, wherein the transformer floor closes the second opening when the transformer has been mounted in the nacelle, characterized in that the transformer floor is provided in or on the nacelle floor in the area of the second opening by means of fastening elements (420, 410). a tower, a nacelle on the tower, wherein the nacelle has a nacelle floor with a first and second opening (311,312), wherein the first opening has dimensions that allow first components to be passed through, wherein the second opening is larger than the first opening, and a transformer with a transformer floor inside of the nacelle, wherein the second opening has dimensions that allow the transformer to be passed through, wherein the transformer floor closes the second opening when the transformer has been mounted in the nacelle, characterized in that the transformer floor is provided in or on the nacelle floor in the area of the second opening by means of fastening elements (420, 410).
A method for transmitting a hybrid automatic repeat request acknowledgement/negative acknowledgement, HARQ ACK/NACK, feedback by a terminal, the method comprising: transmitting, to a base station, HARQ ACK/NACK feedback for each code block group, CBG, for first downlink data; receiving, from the base station, a control channel containing control information for a fall-back operation of the terminal, wherein the control channel is received during a period of time for reconfiguring the number of code blocks in a CBG for transmission of HARQ ACK/NACK feedback; and transmitting, to a base station during fall-back operation, HARQ ACK/NACK feedback for each transport block, TB, based on the control information for second downlink data scheduled and received by the control channel, even when CBG-based retransmission is configured in the terminal, wherein a TB with cyclic redundancy check, CRC, for the first downlink data is segmented into two code blocks with a size of 972 bits and one of the two code blocks is shortened by 4 bits, the segmentation is based on the TB of the first downlink data having 1916 bits and 24 bits for CRC, and on a code rate r=1/2. transmitting, to a base station, HARQ ACK/NACK feedback for each code block group, CBG, for first downlink data; receiving, from the base station, a control channel containing control information for a fall-back operation of the terminal, wherein the control channel is received during a period of time for reconfiguring the number of code blocks in a CBG for transmission of HARQ ACK/NACK feedback; and transmitting, to a base station during fall-back operation, HARQ ACK/NACK feedback for each transport block, TB, based on the control information for second downlink data scheduled and received by the control channel, even when CBG-based retransmission is configured in the terminal, wherein a TB with cyclic redundancy check, CRC, for the first downlink data is segmented into two code blocks with a size of 972 bits and one of the two code blocks is shortened by 4 bits, the segmentation is based on the TB of the first downlink data having 1916 bits and 24 bits for CRC, and on a code rate r=1/2.
A device for guiding a locking bolt on a door of a letterbox or a package box, consisting of a fastening element and a guide body which can be inserted into an opening in the door, characterized in that the guide body is designed as a U-shaped profile with two legs extending parallel to each other, and a web connecting the legs, as well as a plate arranged at the free ends of the legs, to rest on an outer surface of the door, that the plate is designed with external dimensions larger than the opening of the door, that the guide body comprises a collar that can be placed on the outer surface of the door, or that the guide body consists of an essentially cubic body which is arranged on a plate which, in the assembled state, rests partially on the outer surface of the door. that the guide body is designed as a U-shaped profile with two legs extending parallel to each other, and a web connecting the legs, as well as a plate arranged at the free ends of the legs, to rest on an outer surface of the door, that the plate is designed with external dimensions larger than the opening of the door, that the guide body comprises a collar that can be placed on the outer surface of the door, or that the guide body consists of an essentially cubic body which is arranged on a plate which, in the assembled state, rests partially on the outer surface of the door.
A heat transfer pipe of a boiler, in particular of a condensing boiler, having: an outer pipe through which exhaust gases of the boiler furnace can flow and which can be surrounded by boiler water on the outside; and a profiled insert which is inserted into the outer pipe and, to increase the inner surface area of the outer pipe, has ribs running in the longitudinal direction thereof, and is in thermally conductive contact with the outer pipe, a first longitudinal section of the outer pipe being cylindrical and smooth-walled, and a second longitudinal section of the outer pipe having at least one cross-section-narrowing element which narrows the flow cross-section, the profiled insert extending only over the first longitudinal section of the outer pipe, characterised in that the at least one cross-section-narrowing element is formed as a tube insert in the manner of a nozzle which is inserted into the second longitudinal section of the outer pipe.
Probiotic lactic bacteria, isolated particularly from Donkey milk, and selected from the group consisting of strains deposited under accession number DSM 22098, DSM 22099, DSM 22100, DSM 22102, DSM 22101, DSM 23558, DSM 23559, and DSM 23560 with DSMZ.