mhurhangee/ep-ind-claims huggingface dataset:
A process for making a lithographic printing plate, the process comprising: a step of producing a negative-working lithographic printing plate precursor comprising above a support a photopolymerizable photosensitive layer comprising a vinylcarbazole compound-derived monomer unit-containing acrylic polymer and a urethane-acrylic hybrid polymer, a step of imagewisely exposing the negative-working lithographic printing plate precursor, and a step of developing the exposed negative-working lithographic printing plate precursor by means of a developer having a pH of 4 to 10, comprising at least (Component A) a compound represented by Formula below and/or Formula below and (Component B) water, and having an organic solvent content of less than 5 mass%, wherein the process does not comprise a washing step or a gumming step before or after the development step, wherein in Formula R 1 to R 3 independently denote an alkyl group, and in Formula R 4 to R 6 independently denote an alkyl group, L denotes an alkylene group, and A denotes a carboxylate ion or a sulfonate ion. a step of producing a negative-working lithographic printing plate precursor comprising above a support a photopolymerizable photosensitive layer comprising a vinylcarbazole compound-derived monomer unit-containing acrylic polymer and a urethane-acrylic hybrid polymer, a step of imagewisely exposing the negative-working lithographic printing plate precursor, and a step of developing the exposed negative-working lithographic printing plate precursor by means of a developer having a pH of 4 to 10, comprising at least (Component A) a compound represented by Formula below and/or Formula below and (Component B) water, and having an organic solvent content of less than 5 mass%, wherein the process does not comprise a washing step or a gumming step before or after the development step, wherein in Formula R 1 to R 3 independently denote an alkyl group, and in Formula R 4 to R 6 independently denote an alkyl group, L denotes an alkylene group, and A denotes a carboxylate ion or a sulfonate ion.
A flexible electrode for applying an electric field to the human body, characterized by comprising: a gripping portion; a deformable structure having a first face fixed to the gripping portion; a flexible polymeric film arranged on a flat second face of the deformable structure and provided, on a flat face thereof facing outwards the electrode, with flat metal structures (10,11) defining at least one first electrode and one second electrode (E1,E2), surfaces (10a,11a) of the flat metal structures (10,11) facing outwards the polymeric film being coplanar with the flat face of the polymeric film. a gripping portion; a deformable structure having a first face fixed to the gripping portion; a flexible polymeric film arranged on a flat second face of the deformable structure and provided, on a flat face thereof facing outwards the electrode, with flat metal structures (10,11) defining at least one first electrode and one second electrode (E1,E2), surfaces (10a,11a) of the flat metal structures (10,11) facing outwards the polymeric film being coplanar with the flat face of the polymeric film.
An electrically assisted bicycle comprising: a crank shaft; pedals (33, 34) for rotating the crank shafts; an electric motor which is adapted to assist pedal effort exerted on the pedals (33, 34) by a rider; and a propelling detection sensor which is adapted to detect a start of propelling of the electrically assisted bicycle, characterized by a pedal effort sensor which is adapted to detect pedal torque exerted on the pedals (33, 34) by the rider; a control module which is adapted to execute a first control for obtaining a command value to the electric motor based on an output of the pedal effort sensor and without an output of the propelling detection sensor, and to execute a second control for obtaining a command value to the electric motor based on an output of the pedal effort sensor and the output of the propelling detection sensor, wherein the control module can select the first control or the second control as a calculation method of a command value issued to the electric motor for a period of time from a state where the electrically assisted bicycle is stopped until a detection of the rotation of the crank shaft. a crank shaft; pedals (33, 34) for rotating the crank shafts; an electric motor which is adapted to assist pedal effort exerted on the pedals (33, 34) by a rider; and a propelling detection sensor which is adapted to detect a start of propelling of the electrically assisted bicycle, characterized by a pedal effort sensor which is adapted to detect pedal torque exerted on the pedals (33, 34) by the rider; a control module which is adapted to execute a first control for obtaining a command value to the electric motor based on an output of the pedal effort sensor and without an output of the propelling detection sensor, and to execute a second control for obtaining a command value to the electric motor based on an output of the pedal effort sensor and the output of the propelling detection sensor, wherein the control module can select the first control or the second control as a calculation method of a command value issued to the electric motor for a period of time from a state where the electrically assisted bicycle is stopped until a detection of the rotation of the crank shaft.
A ventilation window comprising: - a ventilation device which has been installed inside a frame on the vertical side of the ventilation window and which is equipped with a heat exchanger; - an outlet duct which is located after the duct of the heat exchanger in the ventilation device and which forms in the ventilation device a drain connection to the exterior, and characterized in that: the outlet duct comprises i) a guide such as a trough, inclined guide surfaces and/or a funnel, arranged to guide condensation water from the mouth of the duct of the heat exchanger; ii) an outlet tube installed to the guide; and iii) an arrangement (80, 85) for keeping water melted; and where in the ventilation device the outlet duct runs over the entire distance between the heat exchanger and the mouth of the outlet tube inside the ventilation device and furthermore so that condensation water travels all the time downwards by gravitation and with an air flow. - a ventilation device which has been installed inside a frame on the vertical side of the ventilation window and which is equipped with a heat exchanger; - an outlet duct which is located after the duct of the heat exchanger in the ventilation device and which forms in the ventilation device a drain connection to the exterior, and characterized in that: the outlet duct comprises i) a guide such as a trough, inclined guide surfaces and/or a funnel, arranged to guide condensation water from the mouth of the duct of the heat exchanger; ii) an outlet tube installed to the guide; and iii) an arrangement (80, 85) for keeping water melted; and where in the ventilation device the outlet duct runs over the entire distance between the heat exchanger and the mouth of the outlet tube inside the ventilation device and furthermore so that condensation water travels all the time downwards by gravitation and with an air flow. i) a guide such as a trough, inclined guide surfaces and/or a funnel, arranged to guide condensation water from the mouth of the duct of the heat exchanger; ii) an outlet tube installed to the guide; and iii) an arrangement (80, 85) for keeping water melted; and where in the ventilation device the outlet duct runs over the entire distance between the heat exchanger and the mouth of the outlet tube inside the ventilation device and furthermore so that condensation water travels all the time downwards by gravitation and with an air flow.
A method of compensating for inter-symbol interference, ISI, in a signal transmitted from a transmitter to a receiver, said method characterized by: pre-compensating Orthogonal Frequency Division Multiplexing, OFDM, symbols at the transmitter to substantially reduce diagonal ISI in OFDM symbols received at the receiver; and transmitting said pre-compensated symbols by pulse-shaped OFDM using a pulse shape chosen to substantially reduce at least one of inter-block and inter-channel ISI in the OFDM symbols received at the receiver wherein inter-channel ISI comprises ISI between symbols transmitted on different sub-carriers at the same time within the same OFDM block, inter-block ISI comprises ISI between symbols transmitted on the same sub-carrier at different times in different OFDM blocks, and diagonal ISI comprises a combination of both inter-channel and inter-block ISI. pre-compensating Orthogonal Frequency Division Multiplexing, OFDM, symbols at the transmitter to substantially reduce diagonal ISI in OFDM symbols received at the receiver; and transmitting said pre-compensated symbols by pulse-shaped OFDM using a pulse shape chosen to substantially reduce at least one of inter-block and inter-channel ISI in the OFDM symbols received at the receiver wherein inter-channel ISI comprises ISI between symbols transmitted on different sub-carriers at the same time within the same OFDM block, inter-block ISI comprises ISI between symbols transmitted on the same sub-carrier at different times in different OFDM blocks, and diagonal ISI comprises a combination of both inter-channel and inter-block ISI.
An ethylene/α-olefin copolymer having a ratio of Mw/Mn of less than or equal to 5, a ratio of Mz/Mw of less than or equal to 2.3, and a zero-shear viscosity at 190 °C of greater than or equal to 8 x 10 4 Pa-sec, and wherein the copolymer has from 0.008 to 0.04 long chain branches per 1000 total carbon atoms.
A packaging machine for forming a product cavity in a web, the packaging machine comprising: a forming die box defining a recess into which the product cavity is formed, a die box base, an insert that is axially movable in the recess to thereby vary a depth of the recess, and a variable depth mechanism that selectively moves the insert to vary the depth of the recess, characterized in that the packaging machine comprises a latching mechanism by which the forming die box is moveable into and between a first position in which the forming die box is spaced apart from the die box base and a second position in which the forming die box is supported by the die box base, and in said first position the forming die box is freely laterally moveable away from the die box base. a forming die box defining a recess into which the product cavity is formed, a die box base, an insert that is axially movable in the recess to thereby vary a depth of the recess, and a variable depth mechanism that selectively moves the insert to vary the depth of the recess, characterized in that the packaging machine comprises a latching mechanism by which the forming die box is moveable into and between a first position in which the forming die box is spaced apart from the die box base and a second position in which the forming die box is supported by the die box base, and in said first position the forming die box is freely laterally moveable away from the die box base.
A structure for reinforcing a fascia comprising: a fascia having a featureless area; at least one reinforcement structure that is vacuum formed, wherein the at least one reinforcement structure is attached to the featureless area of the fascia, wherein at least a portion of the fascia is covered by the at least one reinforcement structure; a plurality of strengthening features on the at least one reinforcement structure, wherein the plurality of strengthening features increase the strength of the at least one reinforcement structure; and an attachment mechanism, wherein the attachment mechanism is used to attach the at least one reinforcement structure to the fascia in a secondary manufacturing step after the fascia is formed, wherein the plurality of strengthening features have a center point in the center of the at least one reinforcement structure, and the plurality of strengthening features circumferentially extend around the center point by increasing the radius of the plurality of strengthening features as the distance from the center point is increased. a fascia having a featureless area; at least one reinforcement structure that is vacuum formed, wherein the at least one reinforcement structure is attached to the featureless area of the fascia, wherein at least a portion of the fascia is covered by the at least one reinforcement structure; a plurality of strengthening features on the at least one reinforcement structure, wherein the plurality of strengthening features increase the strength of the at least one reinforcement structure; and an attachment mechanism, wherein the attachment mechanism is used to attach the at least one reinforcement structure to the fascia in a secondary manufacturing step after the fascia is formed, wherein the plurality of strengthening features have a center point in the center of the at least one reinforcement structure, and the plurality of strengthening features circumferentially extend around the center point by increasing the radius of the plurality of strengthening features as the distance from the center point is increased.
A foldable bag, wherein the foldable bag comprises a first sheet, a second sheet and a third sheet, an accommodating cavity with an opening being enclosed by the first sheet and the second sheet, the accommodating cavity being configured to accommodate a mobile device, the third sheet extending from the second sheet and being rotatable to at least partially cover the opening, the first sheet having two corresponding first sides and second sides, both the first sheet and the second sheet having a plurality of folding lines, the plurality of folding lines including: a first folding line, being arranged on the first sheet, the beginning and the end of which are respectively adjacent to the corresponding second sides, wherein the first folding line is parallel to the first side; a second folding line, being arranged on the first sheet and extending obliquely from the beginning of the first folding line to the adjacent first side; a third folding line, being arranged on the first sheet and extending obliquely from the end of the first folding line to the adjacent first side; a fourth folding line and a fifth folding line, both being arranged on the second sheet, respectively corresponding to the second folding line and the third folding line, and being folded through the plurality of folding lines to form a three-dimensional supporting structure. a first folding line, being arranged on the first sheet, the beginning and the end of which are respectively adjacent to the corresponding second sides, wherein the first folding line is parallel to the first side; a second folding line, being arranged on the first sheet and extending obliquely from the beginning of the first folding line to the adjacent first side; a third folding line, being arranged on the first sheet and extending obliquely from the end of the first folding line to the adjacent first side; a fourth folding line and a fifth folding line, both being arranged on the second sheet, respectively corresponding to the second folding line and the third folding line, and being folded through the plurality of folding lines to form a three-dimensional supporting structure.
A catheter comprising an elongated member of cylindrical shape comprising first and second lumens extending each between a distal end and a proximal portion of the elongated member; wherein the elongated member comprises a longitudinal wave-shaped opening along the whole length of the second lumen, at least between the distal end of the elongated member and said proximal portion of the elongated member.
A data receiving method, comprising: performing, by a receive end device, a DRX operation at a first frequency based on a discontinuous reception, DRX, parameter; and receiving, by the receive end device in a time indicated by the DRX parameter, first indication information sent by a transmit end device by using the first frequency, wherein the first indication information instructs the receive end device to receive data at a second frequency, characterized in that the second frequency is higher than the first frequency; and wherein after the receiving, by the receive end device in a time indicated by the DRX parameter, first indication information sent by a transmit end device by using the first frequency, the method further comprises: starting, by the receive end device, beam tracking to determine an optimal beam; sending, by the receive end device, second indication information to the transmit end device, wherein the second indication information indicates the optimal beam; and receiving, by the receive end device at the second frequency by using the optimal beam, data sent by the transmit end device at the second frequency. performing, by a receive end device, a DRX operation at a first frequency based on a discontinuous reception, DRX, parameter; and receiving, by the receive end device in a time indicated by the DRX parameter, first indication information sent by a transmit end device by using the first frequency, wherein the first indication information instructs the receive end device to receive data at a second frequency, characterized in that the second frequency is higher than the first frequency; and wherein after the receiving, by the receive end device in a time indicated by the DRX parameter, first indication information sent by a transmit end device by using the first frequency, the method further comprises: starting, by the receive end device, beam tracking to determine an optimal beam; sending, by the receive end device, second indication information to the transmit end device, wherein the second indication information indicates the optimal beam; and receiving, by the receive end device at the second frequency by using the optimal beam, data sent by the transmit end device at the second frequency. starting, by the receive end device, beam tracking to determine an optimal beam; sending, by the receive end device, second indication information to the transmit end device, wherein the second indication information indicates the optimal beam; and receiving, by the receive end device at the second frequency by using the optimal beam, data sent by the transmit end device at the second frequency.
A device for applying adhesive to a sheet for mattresses, comprising: - an element rotating about at least one axis of rotation and having at least one outer side surface, the element being designed, by rolling the element on the sheet, to cause the application of the adhesive on the sheet due to at least the rotation of the element, - a plurality of nozzles designed to dispense, preferably by gravity, the adhesive towards the side surface, the side surface being designed to transport the adhesive towards the sheet during the rotation in such a way as to cause the subsequent application of the adhesive on the sheet, - a plurality of channels, the nozzles being associated with a respective channel and being designed to dispense the adhesive towards the respective channel, wherein each of the channels is designed to receive the adhesive and to transport the adhesive towards the sheet during the rotation in such a way as to cause the subsequent application of the adhesive on the sheet, each of the channels being positioned on the side surface and being defined by at least one groove made on the side surface. - an element rotating about at least one axis of rotation and having at least one outer side surface, the element being designed, by rolling the element on the sheet, to cause the application of the adhesive on the sheet due to at least the rotation of the element, - a plurality of nozzles designed to dispense, preferably by gravity, the adhesive towards the side surface, the side surface being designed to transport the adhesive towards the sheet during the rotation in such a way as to cause the subsequent application of the adhesive on the sheet, - a plurality of channels, the nozzles being associated with a respective channel and being designed to dispense the adhesive towards the respective channel, wherein each of the channels is designed to receive the adhesive and to transport the adhesive towards the sheet during the rotation in such a way as to cause the subsequent application of the adhesive on the sheet, each of the channels being positioned on the side surface and being defined by at least one groove made on the side surface.
Vehicle, on which an arrangement for the spectroscopic determination of the constituents and concentrations of pumpable materials is mounted, including a sample container, a pump and a measuring cell which forms a unit with a spectroscopic measuring head, wherein the measuring cell is connected to the pump, which is regulable for varying the flow rate, and to the sample container by way of a pipeline, and in which the spectroscopic measuring head has electrical connections with a control and evaluation unit, wherein the quantity of flow through an outlet valve in the outlet line of a tank of the vehicle is regulated by the control and evaluation unit.
Method for operating a thermal printing unit having a print head and heating elements assigned to the print head, a heating element representing a pixel and the heating elements assigned to the print head representing a line of pixels, the print head being designed to activate the heating elements with the effect of printing onto a printing substrate in which - for each line of pixels, a type of grouping of heating elements to be activated simultaneously is determined on the basis of the heating elements to be activated for each line of pixels and a predefined maximum number of heating elements to be activated at most simultaneously, - if more than one group of heating elements to be activated simultaneously resulting from the type of grouping has been determined for each line of pixels, the individual groups are activated with a time offset in relation to one another, - the predefined maximum number is determined on the basis of an operating temperature of the thermal printing unit. - for each line of pixels, a type of grouping of heating elements to be activated simultaneously is determined on the basis of the heating elements to be activated for each line of pixels and a predefined maximum number of heating elements to be activated at most simultaneously, - if more than one group of heating elements to be activated simultaneously resulting from the type of grouping has been determined for each line of pixels, the individual groups are activated with a time offset in relation to one another, - the predefined maximum number is determined on the basis of an operating temperature of the thermal printing unit.
A drip chamber (150, 250, 350, 450, 550, 650, 850, 950, 1050) comprising: a container configured to hold an IV fluid; a drop former (220, 420, 520, 620, 820, 920, 1020) suspended over the container and coupled to an inlet port to receive the IV fluid from a reservoir; characterized in that the drip chamber (150, 250, 350, 450, 550, 650, 850, 950, 1050) further comprises an acoustic emitter operatively coupled to the drop former (220, 420, 520, 620, 820, 920, 1020) to stimulate a release of a drop of the IV fluid from the drop former (220, 420, 520, 620, 820, 920, 1020). a container configured to hold an IV fluid; a drop former (220, 420, 520, 620, 820, 920, 1020) suspended over the container and coupled to an inlet port to receive the IV fluid from a reservoir; characterized in that the drip chamber (150, 250, 350, 450, 550, 650, 850, 950, 1050) further comprises an acoustic emitter operatively coupled to the drop former (220, 420, 520, 620, 820, 920, 1020) to stimulate a release of a drop of the IV fluid from the drop former (220, 420, 520, 620, 820, 920, 1020).