mhurhangee/ep-ind-claims huggingface dataset:
A vehicle approach notification device (40, 40', 40", 140, 250) of a saddle-ridden electric-powered vehicle attached to a saddle-ridden electric-powered vehicle (10, 101, 201) having a vehicle body cover (32, 33, 121a, 207A) that covers a vehicle body, the vehicle approach notification device comprising: an air opening (41, 84, 143a, 245a) that is formed in the vehicle body cover (32, 33, 121a, 207A) for taking in air from an outside; the vehicle approach notification device characterized in that it further comprises, a ventilation passage (42, 85, 143b, 243) that is formed in the vehicle body cover (32, 33, 121a, 207A) for passing air taken in from the air opening (41, 84, 143a, 245a) therethrough; and a sound emission device (36, 36', 160, 251) that is arranged in the ventilation passage (42, 85, 143b, 243) and emits sound by means of an airflow that passes through the ventilation passage (42, 85, 143b, 243). an air opening (41, 84, 143a, 245a) that is formed in the vehicle body cover (32, 33, 121a, 207A) for taking in air from an outside; the vehicle approach notification device characterized in that it further comprises, a ventilation passage (42, 85, 143b, 243) that is formed in the vehicle body cover (32, 33, 121a, 207A) for passing air taken in from the air opening (41, 84, 143a, 245a) therethrough; and a sound emission device (36, 36', 160, 251) that is arranged in the ventilation passage (42, 85, 143b, 243) and emits sound by means of an airflow that passes through the ventilation passage (42, 85, 143b, 243).
A cylinder lock comprising a rotatable lock barrel and a cam for actuating the bolting means of a door; the cylinder lock further comprising two ends, a first end positioned on a first side of the cam and a second end positioned on a second side of the cam, substantially opposite said first end; wherein at least said first end comprises a keyhole which, when a key is inserted, actuates the cam to lock or unlock the bolting means of the door; wherein the lock further comprises a drive assembly for displacing said cam when a key is inserted and having a spool, and a securing means comprising a spring and a pin which is displaceable, by said drive assembly, between a first position in which the pin is held down against the spring by the spool so that it is engaged in a hole of the lock barrel to prevent movement of the cam, and a second position wherein the pin disengages the hole of the lock barrel to allow movement of the cam; whereby, in use, when a key is not present in the lock, the securing means is in the first position to prevent movement of the cam and thus the bolting means of the door.
A method for producing pressware, comprising: pressing a substrate between an upper forming die and a lower forming die to produce a pressware product; moving at least a first portion of the upper forming die away from the lower forming die; ejecting the pressware product from the lower forming die while feeding a web material between the upper forming die and the lower forming die; cutting a segment of the web material to produce another substrate; and pressing the another substrate between the upper forming die and the lower forming die to produce another pressware product, characterised in that the pressware product is ejected from the lower forming die while disposed below a plane of the web material feeding between the upper forming die and the lower forming die. pressing a substrate between an upper forming die and a lower forming die to produce a pressware product; moving at least a first portion of the upper forming die away from the lower forming die; ejecting the pressware product from the lower forming die while feeding a web material between the upper forming die and the lower forming die; cutting a segment of the web material to produce another substrate; and pressing the another substrate between the upper forming die and the lower forming die to produce another pressware product, characterised in that the pressware product is ejected from the lower forming die while disposed below a plane of the web material feeding between the upper forming die and the lower forming die.
A cache configured to: store a plurality of cache lines in a data memory; store a plurality of tags corresponding to the plurality of cache lines, wherein each of the plurality of tags includes a sticky state and a group identifier, wherein the group ID identifies a dataflow group of the request which caused the cache line to be stored in the cache; receive a first request to clear all cache lines for a first group ID; the cache characterized in that it is further configured to record a first starting index of a starting position within the plurality of tags responsive to receiving the first request; step through the plurality of tags to identify cache lines belonging to the first group ID; and clear a sticky state of a given cache line responsive to determining the given cache line belongs to the first group ID without having to process eviction immediately. store a plurality of cache lines in a data memory; store a plurality of tags corresponding to the plurality of cache lines, wherein each of the plurality of tags includes a sticky state and a group identifier, wherein the group ID identifies a dataflow group of the request which caused the cache line to be stored in the cache; receive a first request to clear all cache lines for a first group ID; the cache characterized in that it is further configured to record a first starting index of a starting position within the plurality of tags responsive to receiving the first request; step through the plurality of tags to identify cache lines belonging to the first group ID; and clear a sticky state of a given cache line responsive to determining the given cache line belongs to the first group ID without having to process eviction immediately.
An electrochemical cell for a lithium-ion battery, the electrochemical cell having an anode, a cathode, and an electrolyte in communication with the anode and the cathode, wherein the cathode comprises a lithium-ion containing active material and has a protective coating of a sulfone-containing compound on an electrolyte-contacting surface, wherein the sulfone-containing compound comprises one or more sulfonyl functional groups, the sulfonyl functional group containing a central hexavalent sulfur atom that is double bonded to each of two oxygen atoms and has a single bond connection to each of two carbon atoms.
A filter manufacturing apparatus comprising: - a feed path adapted to continuously feed a filter material along a longitudinal transport direction; - a forming device connected to a terminating end of the feed path and adapted to form the filter material into a continuous filter body and to deliver the formed continuous filter body, the forming device including: o a tubular element adapted to allow the filter material to pass therethrough to form the filter tow material into the continuous filter body; and o a steam generator adapted to produce steam, the steam generator being in fluid communication with the tubular element to supply steam to the filter material; - a drain channel in fluid communication with the tubular element adapted to drain fluid from the tubular element; characterized it that it further includes - a valve adapted to open and close the drain channel so as to allow or block discharge of fluid from the tubular element. - a feed path adapted to continuously feed a filter material along a longitudinal transport direction; - a forming device connected to a terminating end of the feed path and adapted to form the filter material into a continuous filter body and to deliver the formed continuous filter body, the forming device including: o a tubular element adapted to allow the filter material to pass therethrough to form the filter tow material into the continuous filter body; and o a steam generator adapted to produce steam, the steam generator being in fluid communication with the tubular element to supply steam to the filter material; o a tubular element adapted to allow the filter material to pass therethrough to form the filter tow material into the continuous filter body; and o a steam generator adapted to produce steam, the steam generator being in fluid communication with the tubular element to supply steam to the filter material; - a drain channel in fluid communication with the tubular element adapted to drain fluid from the tubular element; characterized it that it further includes - a valve adapted to open and close the drain channel so as to allow or block discharge of fluid from the tubular element.
Adhesive composition comprising at least 50 wt % of polyvinyl acetate, wherein said composition further comprises a natural flour selected from: millet and oats, or a mixture thereof, and further wherein wood fibers are not present.
A sterile adapter for coupling a surgical instrument and a surgical instrument manipulator, the sterile adapter comprising: a bottom component including a bottom component opening; and a coupling component rotatably coupled to the bottom component, the coupling component including an engagement feature that engages the surgical instrument manipulator, characterised by: the bottom component further including a bottom lip partially surrounding the bottom component opening, the bottom lip including a locking mechanism; and the coupling component further including a locking mechanism opening that is configured to engage the locking mechanism and to prevent the coupling component from rotating in either direction when the sterile adapter is coupled to the surgical instrument manipulator and the engagement feature has not engaged the surgical instrument manipulator. a bottom component including a bottom component opening; and a coupling component rotatably coupled to the bottom component, the coupling component including an engagement feature that engages the surgical instrument manipulator, characterised by: the bottom component further including a bottom lip partially surrounding the bottom component opening, the bottom lip including a locking mechanism; and the coupling component further including a locking mechanism opening that is configured to engage the locking mechanism and to prevent the coupling component from rotating in either direction when the sterile adapter is coupled to the surgical instrument manipulator and the engagement feature has not engaged the surgical instrument manipulator. the bottom component further including a bottom lip partially surrounding the bottom component opening, the bottom lip including a locking mechanism; and the coupling component further including a locking mechanism opening that is configured to engage the locking mechanism and to prevent the coupling component from rotating in either direction when the sterile adapter is coupled to the surgical instrument manipulator and the engagement feature has not engaged the surgical instrument manipulator.
A method comprising: engaging a well of a cartridge with a flow sensor of an instrument, the cartridge comprising: a rotary valve comprising a rotatable port and a center port, the well in fluid communication with a well channel, the well channel comprising a well channel port that the rotatable port is to align to in order to receive fluid from the well, and a flowcell comprising an inlet gasket in fluid communication with the center port; connecting a source of pressurized air to the flow sensor in order to establish a mass flow of air through a flow path, the flow path extending through one of the flow sensor, the well channel, the rotary valve, and the flowcell; measuring the mass flow of air through the flow path with the flow sensor; and determining if there is one of an air leak and an air blockage within the flow path. a rotary valve comprising a rotatable port and a center port, the well in fluid communication with a well channel, the well channel comprising a well channel port that the rotatable port is to align to in order to receive fluid from the well, and a flowcell comprising an inlet gasket in fluid communication with the center port; connecting a source of pressurized air to the flow sensor in order to establish a mass flow of air through a flow path, the flow path extending through one of the flow sensor, the well channel, the rotary valve, and the flowcell; measuring the mass flow of air through the flow path with the flow sensor; and determining if there is one of an air leak and an air blockage within the flow path.
A fuel cell fluid transport plate (12; 14) comprising a generally planar body having a total area A defined by a length L and a width W of the body; a first portion (60, 62) of the total area A being configured for directing flow of a fuel cell coolant into or out of the fluid transport plate (12; 14), the first portion having a dimension c, a second portion of the total area A being configured for sealing edges of the fluid transport plate (12; 14), the second portion having a dimension s, a third portion of the total area A being configured for directing flow of fuel cell reactants, that is defined by the amount of the length L that is available after the portions having the dimensions s and c are removed multiplied by the amount of the width W that remains after corresponding portions having the dimension s are removed, wherein the third portion constitutes an active area of the fluid transport plate (12; 14) that is usable for the electrochemical fuel cell reaction, and wherein the ratio r = L / W satisfies the equation r = 1 + c/ 2 s.
A one-press method for producing a glass vessel, the method comprising: a press step of molding, by one press, a parison which is provided with a body part, a mouth ring part and a shoulder part between the body part and the mouth ring part and has a finish form by pouring a gob into a forming mold used to mold the parison having a finish form from the gob by using a forming die including a forming die base part and a mouth die which are each divided into two parts by a predetermined parting line and then by inserting a plunger into the forming mold; a transfer step of inverting the parison having a finish form to a cooling mold provided with a support section which supports the mouth ring part of the parison having a finish form, a mounting section on which the bottom part of the parison having a finish form is mounted and a blow head which internally cools the parison having a finish form in the condition that the parison is grasped by the mouth die; and a cooling step of making the parison having a finish form into a glass vessel by blowing off a first cooling air along the inside peripheral surface of the parison having a finish form from the blow head and supplying a second cooling air that cools the outside peripheral surface of the parison having a finish form, along the outside peripheral surface of the parison having a finish form from a discharge port disposed in the mounting section, wherein the press step is carried out using a forming die having a parting line positioned at the shoulder part between the mouth ring part and body part of the parison having a finish form, wherein a guide member is installed inside of the mouth die, and the guide member is disposed inside of the mouth die through a spring member which forcibly works centering. a press step of molding, by one press, a parison which is provided with a body part, a mouth ring part and a shoulder part between the body part and the mouth ring part and has a finish form by pouring a gob into a forming mold used to mold the parison having a finish form from the gob by using a forming die including a forming die base part and a mouth die which are each divided into two parts by a predetermined parting line and then by inserting a plunger into the forming mold; a transfer step of inverting the parison having a finish form to a cooling mold provided with a support section which supports the mouth ring part of the parison having a finish form, a mounting section on which the bottom part of the parison having a finish form is mounted and a blow head which internally cools the parison having a finish form in the condition that the parison is grasped by the mouth die; and a cooling step of making the parison having a finish form into a glass vessel by blowing off a first cooling air along the inside peripheral surface of the parison having a finish form from the blow head and supplying a second cooling air that cools the outside peripheral surface of the parison having a finish form, along the outside peripheral surface of the parison having a finish form from a discharge port disposed in the mounting section, wherein
A method for the manufacture of a glycerol ketal of ethyl levulinate, the method comprising: contacting glycerol with ethyl levulinate and an acid catalyst in a reactor under re-action conditions to produce a product that comprises a glycerol ketal of ethyl levu-linate; wherein the acid catalyst is camphor sulfonic acid, fractionating the product under fractionation conditions to separate fractionated materials from the product until the product comprises less than 1000 parts per million of glycerol; recycling the fractionated materials back to the reactor; and distilling the product under distillation conditions wherein the resulting product comprises the glycerol ketal of ethyl levulinate and less than or equal to about 2 wt% contaminants; wherein the contaminants comprise one or more of glycerol, acid species, ethyl levulinate, water, or a high molecular weight byproduct having molecular weights that are at least 1.5 times greater than the molecular weight of the glycerol ketal of ethyl levulinate. contacting glycerol with ethyl levulinate and an acid catalyst in a reactor under re-action conditions to produce a product that comprises a glycerol ketal of ethyl levu-linate; wherein the acid catalyst is camphor sulfonic acid, fractionating the product under fractionation conditions to separate fractionated materials from the product until the product comprises less than 1000 parts per million of glycerol; recycling the fractionated materials back to the reactor; and distilling the product under distillation conditions wherein the resulting product comprises the glycerol ketal of ethyl levulinate and less than or equal to about 2 wt% contaminants; wherein the contaminants comprise one or more of glycerol, acid species, ethyl levulinate, water, or a high molecular weight byproduct having molecular weights that are at least 1.5 times greater than the molecular weight of the glycerol ketal of ethyl levulinate.
A receiving device comprising: a plurality of receiving circuits (11, 21); a plurality of local oscillation circuits (13, 23) each of which supplies a local oscillation signals to one out of the plurality of receiving circuits (11, 21); and a control unit that provides a plurality of search algorithms for searching for reception frequencies in the receiving circuits (11, 21), and selects at the time of searching for a reception frequency in a specific receiving circuit one out of the plurality of search algorithms by determining oscillation frequencies of oscillators included in other local oscillation circuits corresponding to other receiving circuits different from the specific receiving circuit, and selecting the search algorithm such that an oscillation frequency coinciding with the determined oscillation frequency or an oscillation frequency close to the determined oscillation frequency is avoided in an oscillator of the oscillation circuit corresponding to the specific receiving circuit, wherein as the search algorithm, at least two search algorithms that include a search algorithm which searches from a lower side of a search frequency range and a search algorithm which searches from an upper side of the search frequency range, are provided. a plurality of receiving circuits (11, 21); a plurality of local oscillation circuits (13, 23) each of which supplies a local oscillation signals to one out of the plurality of receiving circuits (11, 21); and a control unit that provides a plurality of search algorithms for searching for reception frequencies in the receiving circuits (11, 21), and selects at the time of searching for a reception frequency in a specific receiving circuit one out of the plurality of search algorithms by determining oscillation frequencies of oscillators included in other local oscillation circuits corresponding to other receiving circuits different from the specific receiving circuit, and selecting the search algorithm such that an oscillation frequency coinciding with the determined oscillation frequency or an oscillation frequency close to the determined oscillation frequency is avoided in an oscillator of the oscillation circuit corresponding to the specific receiving circuit, wherein as the search algorithm, at least two search algorithms that include a search algorithm which searches from a lower side of a search frequency range and a search algorithm which searches from an upper side of the search frequency range, are provided.
A method of subjecting unsaturated input materials to ozonolysis, wherein, in a structured microreaction system consisting of three zones, two reaction zones and a cooling zone, and possessing two downstream structured reactors, having a depth of 20 to 1,800 μm and a cross-section of 20 x 20 to 1,500 x 1,500 μm 2, so that the diameter of the reaction channel does not exceed the safe gap, unsaturated input materials, selected from the group that is formed by aliphatic C 4-40 hydrocarbons, C 16-22 mono and dicarboxylic acids, as well as its ester with C 1-10 alcohols or polyols, each having 1 to 4 double bonds, are converted in a first reactor with a gaseous mixture containing ozone, the ozonolysis is carried out unpressurised or subject to a pressure in the range of 2 to 25 bars, and at temperatures in the range of 10 to 30 °C, and the ozonisation products formed at the intermediary stage are subsequently conveyed into a second reactor, and subjected there to oxidative division with a stream of gas containing oxygen, wherein the oxidative division of the ozonisation products is performed in a stream of gas containing oxygen, at temperatures in the range of 20 to 140°C, if applicable in the presence of suitable catalysts, at pressures in the range of 1 to 10 bars, or a reductive division with a stream of gas containing hydrogen, if applicable in the presence of suitable catalysts, at temperatures in the range of 20 to 100°C and at pressures in the range of 1 to 10 bars, wherein the microreaction system is applied to a substrate, and the substrate has 10 to 1,000 microreaction systems running parallel to one another, which can be activated sequentially or at the same time as the reactants.