mhurhangee/ep-ind-claims huggingface dataset:
Method for the automatic ordering of ink cartridges or ribbon cartridges for a franking machine with automatic generation and transmission of an order message, comprising the steps of: - Monitoring and evaluation of a number of prints with regard to reaching a threshold value before the end of use of a ribbon cartridge or ink cartridge, respectively, wherein, for the indirect determination of an approaching exchange of the ribbon cartridge or ink cartridge, a pre-defined counter reading of the number of prints is analysed before or after sensors detect a low remainder of ribbon of the ribbon cartridge or a low ink level of the ink cartridge, respectively; - Establishment of a communication connection between the franking machine and a distant data center and automatic generation and transmission of an encrypted order message, the latter including an identification code; - Identification of the customer at the data center by means of an identification code of the franking machine; - Placing of the order for ribbon cartridges or ink cartridges with a shipping department by the data center for the identified customer. - Monitoring and evaluation of a number of prints with regard to reaching a threshold value before the end of use of a ribbon cartridge or ink cartridge, respectively, wherein, for the indirect determination of an approaching exchange of the ribbon cartridge or ink cartridge, a pre-defined counter reading of the number of prints is analysed before or after sensors detect a low remainder of ribbon of the ribbon cartridge or a low ink level of the ink cartridge, respectively; - Establishment of a communication connection between the franking machine and a distant data center and automatic generation and transmission of an encrypted order message, the latter including an identification code; - Identification of the customer at the data center by means of an identification code of the franking machine; - Placing of the order for ribbon cartridges or ink cartridges with a shipping department by the data center for the identified customer.
A return air bulkhead for a temperature controlled container, the bulkhead comprising: a lower section configured to couple to the container; an upper section separate from the lower section, the upper section adjustably engageable to the lower section at varying heights relative to the lower section such that a total height of the return air bulkhead is adjustable; wherein the lower section comprises a first set of grooves and the upper section comprises a second set of grooves, wherein the first set of grooves and the second set of grooves meshingly engage each other when the upper section and the lower section are engaged to orient the upper section at a desired height relative to the lower section; wherein the lower section further comprises a first structural support pocket and the upper section further comprises a second structural support pocket, wherein the first structural support pocket includes an inner wall having the first set of grooves, and wherein the second structural support pocket includes an inner wall having the second set of grooves. a lower section configured to couple to the container; an upper section separate from the lower section, the upper section adjustably engageable to the lower section at varying heights relative to the lower section such that a total height of the return air bulkhead is adjustable; wherein the lower section comprises a first set of grooves and the upper section comprises a second set of grooves, wherein the first set of grooves and the second set of grooves meshingly engage each other when the upper section and the lower section are engaged to orient the upper section at a desired height relative to the lower section; wherein the lower section further comprises a first structural support pocket and the upper section further comprises a second structural support pocket, wherein the first structural support pocket includes an inner wall having the first set of grooves, and wherein the second structural support pocket includes an inner wall having the second set of grooves.
An immunogenic composition comprising a polypeptide antigen and a dendritic cell targeting component, wherein the polypeptide antigen comprises a negatively charged region and wherein the dendritic cell targeting component comprises a positively charged group comprising a branched peptide comprising at least four N-terminal arginine residues covalently attached to a Toll-like Receptor ligand which comprises a palmitoyl, myristoyl, stearoyl, lauroyl, octanoyl, or decanoyl lipid and wherein the negatively charged region of antigen is electrostatically associated with the positively charged group of the dendritic cell targeting component and wherein the antigen is associated with the dendritic cell targeting component by electrostatic interaction only.
A control method of a moving robot comprising: a mode inputting step of receiving an input for information on a set time to set a predetermined disturbance prohibiting mode; and a disturbance prohibiting step of restricting at least one specific function (F73; C73) when a current time belongs to the set time, further comprising: a normal performance step of normally performing the at least one specific function (F73; C73) when the current time does not belong to the set time, wherein at least one mode function is provided to be input in the mode inputting step, and when the at least one mode function is input in the mode inputting step, the at least one mode function is turned on in the disturbance prohibiting step and the at least one mode function is turned off in the normal performance step. a mode inputting step of receiving an input for information on a set time to set a predetermined disturbance prohibiting mode; and a disturbance prohibiting step of restricting at least one specific function (F73; C73) when a current time belongs to the set time, further comprising: a normal performance step of normally performing the at least one specific function (F73; C73) when the current time does not belong to the set time, wherein at least one mode function is provided to be input in the mode inputting step, and when the at least one mode function is input in the mode inputting step, the at least one mode function is turned on in the disturbance prohibiting step and the at least one mode function is turned off in the normal performance step. a normal performance step of normally performing the at least one specific function (F73; C73) when the current time does not belong to the set time, wherein at least one mode function is provided to be input in the mode inputting step, and when the at least one mode function is input in the mode inputting step, the at least one mode function is turned on in the disturbance prohibiting step and the at least one mode function is turned off in the normal performance step.
Method for constructing a radial collectors well, comprising the steps of sinking a well shaft in a direction perpendicular to the soil surface such that the well shaft reaches the confining layer, jacking collectors or at least one collector from the well shaft into the filter layer in a direction perpendicular to the well shaft, where the collectors are or the at least one collector is disposed in at least one plane, and where the collectors are or the at least one collector is produced by sequentially jacking and interconnecting collector segments, where prior to or simultaneously with collector jacking the filter layer is loosened and dislodged in the vicinity of the collectors or the at least one collector, the produced slurry is brought into the well shaft, the collector segments having bridge perforations are sequentially jacked into the loosened filter layer, and the collector segments are connected to each other with sleeve joints, characterised by that the filter layer is loosened and dislodged utilizing high-pressure water jet, the high-pressure water jet having a pressure set between 200-400 bars, and by that the collector segments are made from metal sheets.
Refrigeration circuit having a mono- or multi-component refrigerant, especially CO 2, circulating therein, said refrigeration circuit enabling an transcritical operation, said refrigeration circuit comprising, in the direction of refrigerant flow, a compressor unit, a condenser/gascooler, a high pressure control valve, a collecting container, and at least one evaporator (18, 22) having an expansion device (16, 20) connected upstream thereof, wherein a flashgas line having a medium pressure control valve arranged therein is provided between an upper portion of the collecting container and the suction line leading to the compressor unit, a temperature, pressure or liquid level sensor is provided in or at the collecting container; characterized in that a collecting container heating unit is arranged in the collecting container; and a control unit is provided said control unit being configured to effect heating operation of the collecting container heating unit when the temperature or pressure in the collecting container sensed by the sensor falls below a predetermined threshold or the liquid level in the collecting container sensed by the sensor exceeds a predetermined threshold, such that the medium pressure is prevented from decreasing.
An optical device comprising: a first fiber including a first reflective portion; a second fiber including a second reflective portion; and an amplifying fiber including a first end connected to the first fiber and a second end connected to the second fiber, wherein the amplifying fiber is wound in a spiral on a planar surface of one single plane so as not to intersect on said one single plane and so as to have the first end located on an inside thereof, and has an outer section in which the amplifying fiber is wound in a circular manner, characterized in that: the amplifying fiber has an inner section in which the amplifying fiber is wound on said one single plane in a non-circular manner, and that includes an inner most loop with at least two first arc portions each having a radius of curvature set such that a higher-order mode higher than an LP11 mode has loss, wherein the at least two first arc portions function as a mode filter designed to remove higher-order modes higher than the LP11 mode, and the amplifying fiber has a normalized frequency equal to 5.13 or higher. a first fiber including a first reflective portion; a second fiber including a second reflective portion; and an amplifying fiber including a first end connected to the first fiber and a second end connected to the second fiber, wherein the amplifying fiber is wound in a spiral on a planar surface of one single plane so as not to intersect on said one single plane and so as to have the first end located on an inside thereof, and has an outer section in which the amplifying fiber is wound in a circular manner, characterized in that: the amplifying fiber has an inner section in which the amplifying fiber is wound on said one single plane in a non-circular manner, and that includes an inner most loop with at least two first arc portions each having a radius of curvature set such that a higher-order mode higher than an LP11 mode has loss, wherein the at least two first arc portions function as a mode filter designed to remove higher-order modes higher than the LP11 mode, and the amplifying fiber has a normalized frequency equal to 5.13 or higher. the amplifying fiber has an inner section in which the amplifying fiber is wound on said one single plane in a non-circular manner, and that includes an inner most loop with at least two first arc portions each having a radius of curvature set such that a higher-order mode higher than an LP11 mode has loss, wherein the at least two first arc portions function as a mode filter designed to remove higher-order modes higher than the LP11 mode, and the amplifying fiber has a normalized frequency equal to 5.13 or higher.
A method for sending a downlink control channel, applied to a base station, the method comprising: determining one or more Search Space, SS, positions according to at least one of a coverage level or a message type, and sending a downlink control channel in an SS, the coverage level comprising a non-coverage enhancement level CE0 and coverage enhancement levels CE1, CE2 and CE3, the message type comprising at least one of Random Access Response, RAR, Paging or Transmission Power Control, TPC, the SS comprising at least one of a Common Search Space, CSS or a UE dedicated SS, and the SS position comprising at least one of a narrowband/frequency domain position or a time domain position; wherein determining an SS position according to a coverage level comprises: determining that CE1, CE2 and CE3 use respective SS positions; or determining that CE1, CE2 and CE3 use the same SS position. determining one or more Search Space, SS, positions according to at least one of a coverage level or a message type, and sending a downlink control channel in an SS, the coverage level comprising a non-coverage enhancement level CE0 and coverage enhancement levels CE1, CE2 and CE3, the message type comprising at least one of Random Access Response, RAR, Paging or Transmission Power Control, TPC, the SS comprising at least one of a Common Search Space, CSS or a UE dedicated SS, and the SS position comprising at least one of a narrowband/frequency domain position or a time domain position; wherein determining an SS position according to a coverage level comprises: determining that CE1, CE2 and CE3 use respective SS positions; or determining that CE1, CE2 and CE3 use the same SS position. determining that CE1, CE2 and CE3 use respective SS positions; or determining that CE1, CE2 and CE3 use the same SS position.
A hardware based or software based method for scheduling and reordering instructions at an allocation/issue stage of a microprocessor, the method comprising: accessing an input sequence of instructions; wherein the method is characterized by: scanning the input sequence of instructions to locate true dependencies and flagging said true dependencies; scanning the input sequence of instructions to locate output dependencies and flagging said output dependencies; scanning the input sequence of instructions to locate anti-dependencies and flagging said anti-dependencies; populating a dependency matrix in accordance with said true dependencies, said output dependencies and said anti-dependencies; moving instructions flagged as true dependencies into a common group of instructions based on examining the dependency matrix to reorder the input sequence of instructions; and using register renaming to remove instructions flagged as anti-dependencies; accessing an input sequence of instructions; wherein the method is characterized by: scanning the input sequence of instructions to locate true dependencies and flagging said true dependencies; scanning the input sequence of instructions to locate output dependencies and flagging said output dependencies; scanning the input sequence of instructions to locate anti-dependencies and flagging said anti-dependencies; populating a dependency matrix in accordance with said true dependencies, said output dependencies and said anti-dependencies; moving instructions flagged as true dependencies into a common group of instructions based on examining the dependency matrix to reorder the input sequence of instructions; and using register renaming to remove instructions flagged as anti-dependencies; scanning the input sequence of instructions to locate true dependencies and flagging said true dependencies; scanning the input sequence of instructions to locate output dependencies and flagging said output dependencies; scanning the input sequence of instructions to locate anti-dependencies and flagging said anti-dependencies; populating a dependency matrix in accordance with said true dependencies, said output dependencies and said anti-dependencies; moving instructions flagged as true dependencies into a common group of instructions based on examining the dependency matrix to reorder the input sequence of instructions; and using register renaming to remove instructions flagged as anti-dependencies;
A thermal skin treatment device, comprising - a skin contact component with a skin contact surface, - a thermal energy component in thermal contact with the skin contact component, - a temperature control circuit electrically connected to the thermal energy component, said temperature control circuit comprising a user interface, - an energy source electrically connected to said thermal energy component for energy supply, wherein said temperature control circuit is adapted to control an amount of energy supplied from said energy source to said thermal energy component such that - a first predetermined temperature is maintained at the skin contact surface for a first duration, wherein said first predetermined temperature is in a range of 40°C +/- 2°C, or - a second predetermined temperature is maintained at the skin contact surface for a second duration,wherein said second predetermined temperature is in a range of 19°C +/- 2°C, wherein said temperature control circuit is adapted to maintain for a predetermined duration, during operation, only said first predetermined temperature or said second predetermined temperature at the skin contact surface and characterized in that said the skin contact surface has a concave shape. - a skin contact component with a skin contact surface, - a thermal energy component in thermal contact with the skin contact component, - a temperature control circuit electrically connected to the thermal energy component, said temperature control circuit comprising a user interface, - an energy source electrically connected to said thermal energy component for energy supply, wherein said temperature control circuit is adapted to control an amount of energy supplied from said energy source to said thermal energy component such that - a first predetermined temperature is maintained at the skin contact surface for a first duration, wherein said first predetermined temperature is in a range of 40°C +/- 2°C, or - a second predetermined temperature is maintained at the skin contact surface for a second duration,wherein said second predetermined temperature is in a range of 19°C +/- 2°C, - a first predetermined temperature is maintained at the skin contact surface for a first duration, wherein said first predetermined temperature is in a range of 40°C +/- 2°C, or - a second predetermined temperature is maintained at the skin contact surface for a second duration,wherein said second predetermined temperature is in a range of 19°C +/- 2°C, wherein said temperature control circuit is adapted to maintain for a predetermined duration, during operation, only said first predetermined temperature or said second predetermined temperature at the skin contact surface and characterized in that said the skin contact surface has a concave shape.
A method for preparing a compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein each of R 1 and R 2 is independently selected from H, halo, alkyl, alkenyl, alkynyl, and alkoxy, wherein the alkyl, alkenyl, alkynyl, or alkoxy is optionally substituted with 1-3 of halo; comprising the step of: converting a compound of Formula 2A to a compound of Formula I wherein R 3 is hydrogen or an optionally substituted C 1-6 alkyl. converting a compound of Formula 2A to a compound of Formula I
A production process of an electrode catalyst for fuel cells comprising a fluorination step of bringing a catalyst body into contact with fluorine, the catalyst body comprising titanium and an atom of at least one metal element M selected from the group consisting of iron and lanthanum, a carbon atom, a nitrogen atom and an oxygen atom, wherein titanium:M =(1-α):α, provided that 0≤α≤0.20, and wherein when a composition of the catalyst body is expressed as MC x N y O z provided that M is the metal element M and the total amount of M is 1, the ranges of x, y and z are 0<x≤7, 0<y≤2 and 0<z≤3.
A computer-implemented method, comprising: accepting from a medical imaging system a plurality of map points, each map point comprising a respective coordinate on a surface of a body organ measured by bringing a medical probe into proximity with the surface; generating an initial map comprising all of the map points; and displaying the initial map; the method being characterized in that it further comprises the steps of: accepting an operator input specifying at least first and second regions and respective first and second spatial densities, different from one another, at which the map points are to be displayed; selecting a subset of the map points responsively to the operator input; and visualizing the surface in the first and second regions at the respective first and second specified spatial densities by displaying the selected subset of the map points. accepting from a medical imaging system a plurality of map points, each map point comprising a respective coordinate on a surface of a body organ measured by bringing a medical probe into proximity with the surface; generating an initial map comprising all of the map points; and displaying the initial map; accepting an operator input specifying at least first and second regions and respective first and second spatial densities, different from one another, at which the map points are to be displayed; selecting a subset of the map points responsively to the operator input; and visualizing the surface in the first and second regions at the respective first and second specified spatial densities by displaying the selected subset of the map points.
User Equipment, UE, comprising circuitry to: transmit a request to a serving evolved Node B, eNodeB, for permission to transmit to a group of peer UEs (130-2 - 130-n); receive a resource allocation assignment in response to the request, the resource allocation assignment specifying a group identifier, the group identifier identifying a group including the UE and the group of peer UEs (130-2 - 130-n); and transmit a multicast transmission to the group of peer UEs (130-2 - 130-n) using a resource assigned by the serving eNodeB, wherein the circuitry is further arranged to transmit the request within a buffer status report, BSR, the request including a logical channel group identifier, LCGID, of the UE; and the group identifier is a multicast media access control-layer radio network temporary identifier, MC-RNTI, in accordance with a standard of the 3 rd Generation Partnership Project, 3GPP, family of standards for long term evolution, LTE. transmit a request to a serving evolved Node B, eNodeB, for permission to transmit to a group of peer UEs (130-2 - 130-n); receive a resource allocation assignment in response to the request, the resource allocation assignment specifying a group identifier, the group identifier identifying a group including the UE and the group of peer UEs (130-2 - 130-n); and transmit a multicast transmission to the group of peer UEs (130-2 - 130-n) using a resource assigned by the serving eNodeB, wherein the circuitry is further arranged to transmit the request within a buffer status report, BSR, the request including a logical channel group identifier, LCGID, of the UE; and the group identifier is a multicast media access control-layer radio network temporary identifier, MC-RNTI, in accordance with a standard of the 3 rd Generation Partnership Project, 3GPP, family of standards for long term evolution, LTE.