mhurhangee/patent-ind-claim-en huggingface dataset:
A tool coupling arrangement for drills and reamers comprising tool and shank portions with respective tool and shank axial stoppers , an at least partially cylindrical tool coupling end of the tool portion being located within a longitudinal through forward bore portion in the shank portion , and being coupled therein via an elongated coupling member located further inwards in the shank portion than the tool coupling end of the tool portion and comprising axially opposite member coupling and pulling ends ; characterized in that the forward bore portion comprises axially-separate cylindrical front and rear sub-portions and a bore recess which is located therebetween and extends radially outwardly; wherein in a locked position, the tool axial stopper abuts the shank axial stopper , the tool coupling end abuts the front and rear sub-portions , and the member coupling end abuts the tool coupling end and the bore recess . an at least partially cylindrical tool coupling end of the tool portion being located within a longitudinal through forward bore portion in the shank portion , and being coupled therein via an elongated coupling member located further inwards in the shank portion than the tool coupling end of the tool portion and comprising axially opposite member coupling and pulling ends ; characterized in that the forward bore portion comprises axially-separate cylindrical front and rear sub-portions and a bore recess which is located therebetween and extends radially outwardly; wherein in a locked position, the tool axial stopper abuts the shank axial stopper , the tool coupling end abuts the front and rear sub-portions , and the member coupling end abuts the tool coupling end and the bore recess .
A method of simultaneously calibrating magnetic actuation and sensing systems for a workspace , wherein the actuation system comprises a plurality of magnetic actuators and the sensing system comprises a plurality of magnetic sensors , the method further comprising the following steps: - generating a plurality of arbitrary magnetic fields at the workspace by applying a plurality of electric currents to the magnetic actuators ; - measuring each magnetic field with the sensing system in the workspace and measuring each respective electric current with a current sensor; - measuring a magnetic field of a random known sample magnet with the sensing system at an arbitrary position and orientation in the workspace ; and - feeding all the measured data into a calibration model, wherein the calibration model is based on a sensor measurement model and a magnetic actuation model, and finding a solution of the model parameters via a numerical solver in order to calibrate both the actuation and sensing systems at the same time. - generating a plurality of arbitrary magnetic fields at the workspace by applying a plurality of electric currents to the magnetic actuators ; - measuring each magnetic field with the sensing system in the workspace and measuring each respective electric current with a current sensor; - measuring a magnetic field of a random known sample magnet with the sensing system at an arbitrary position and orientation in the workspace ; and - feeding all the measured data into a calibration model, wherein the calibration model is based on a sensor measurement model and a magnetic actuation model, and finding a solution of the model parameters via a numerical solver in order to calibrate both the actuation and sensing systems at the same time.
Melting head of an ice-melting device , comprising a fastening region , which is rearward with respect to the propagation direction and is intended for fastening to a drilling device or a drill pipe, and a heatable front region , which is forward with respect to the propagation direction, wherein the front region has a radially outer surface region , in which the outer cross section of the front region tapers in the propagation direction as far as the forward axial melting head end and the radially outer surface region surrounds an inner recess , the free inner cross section of which decreases from the axial melting head end counter to the propagation direction , characterized in that, in a region between the point of intersection of the inner recess with the centre axis and the axial melting head end , the surface areas of the radially outer surface region and the surface of the inner recess are the same and the surfaces (pla, plb) of the outer surface region and the surface of the inner recess , projected in the propagation direction , are the same size.
A method for routing a call, the method comprising: receiving, at a Continuity Control Function, CCF, executing on an application server, from a serving call session control function, S-CSCF, a first message identifying a user element and indicating that an incoming call intended for the user element has been routed to a first gateway node of a first domain; terminating the message on a first signaling leg in the first domain by the CCF functioning as a Back-to-Back User Agent, B2BUA, on the application server; sending, by the CCF to a HLR, a first message identifying the user element and indicating that an incoming call intended for the user element has been routed to the CCF in the first domain; and receiving by the CCF, an inter-domain routing number for the CCF to use to route the incoming call into a second domain, wherein the inter-domain routing number identifies a visited mobile switching center, VMSC, in the second domain wherein the second domain is a circuit-switched subsystem and the first domain is a multimedia subsystem , wherein the inter-domain routing number is associated with a second gateway node of the second domain, such that the incoming call is routed from the first gateway node of the first domain to the second gateway node of the second domain using the inter-domain routing number. receiving, at a Continuity Control Function, CCF, executing on an application server, from a serving call session control function, S-CSCF, a first message identifying a user element and indicating that an incoming call intended for the user element has been routed to a first gateway node of a first domain; terminating the message on a first signaling leg in the first domain by the CCF functioning as a Back-to-Back User Agent, B2BUA, on the application server; sending, by the CCF to a HLR, a first message identifying the user element and indicating that an incoming call intended for the user element has been routed to the CCF in the first domain; and receiving by the CCF, an inter-domain routing number for the CCF to use to route the incoming call into a second domain, wherein the inter-domain routing number identifies a visited mobile switching center, VMSC, in the second domain wherein the second domain is a circuit-switched subsystem and the first domain is a multimedia subsystem , wherein the inter-domain routing number is associated with a second gateway node of the second domain, such that the incoming call is routed from the first gateway node of the first domain to the second gateway node of the second domain using the inter-domain routing number.
A learning model generation method comprising the steps of: machine learning a behavioral model (S2) with which an operator determines an operational quantity of a process or equipment, where input data is image data obtained by converting history data of one or more observable quantities indicating an operation state of a process or equipment; and output data is an operational quantity of a process or equipment determined by the operator based on the history data; and outputting the machine-learned behavioral model (S3); whereby the image data represents a two-dimensional image with time arranged on one axis and the history data on another axis, wherein the history data of the image data is an image obtained by converting a trend graph of the observable quantities; and whereby the process is a blast furnace process, the observable quantity includes at least one of a molten iron temperature, a tuyere embedment temperature, and a coke ratio, and the operational quantity is an operational quantity with which the molten iron temperature of the blast furnace is controlled. machine learning a behavioral model (S2) with which an operator determines an operational quantity of a process or equipment, where input data is image data obtained by converting history data of one or more observable quantities indicating an operation state of a process or equipment; and output data is an operational quantity of a process or equipment determined by the operator based on the history data; and outputting the machine-learned behavioral model (S3); whereby the image data represents a two-dimensional image with time arranged on one axis and the history data on another axis, wherein the history data of the image data is an image obtained by converting a trend graph of the observable quantities; and whereby the process is a blast furnace process, the observable quantity includes at least one of a molten iron temperature, a tuyere embedment temperature, and a coke ratio, and the operational quantity is an operational quantity with which the molten iron temperature of the blast furnace is controlled.
An in-wheel motor drive device comprising: a wheel hub coupled to a wheel (W); a motor unit having a motor rotating shaft adapted to drive the wheel hub , a casing serving as a contour, and a plurality of power line connecting portions provided on the casing ; and a plurality of bendable power lines whose one ends connect to the power line connecting portion and whose other ends extend to a vehicle body outside the casing , to supply electric power from the vehicle body to the motor unit , wherein the in-wheel motor drive device is connected to a lower end of a strut extending in a vertical direction, is steerable about a steering axis (K) extending along the strut , wherein the plurality of power line connecting portions is disposed overlapping a spring sheet of a shock absorber provided in the strut when viewed in a steering axial direction, and wherein at least two power line connecting portions are disposed overlapping each other when viewed from the steering axial direction. a wheel hub coupled to a wheel (W); a motor unit having a motor rotating shaft adapted to drive the wheel hub , a casing serving as a contour, and a plurality of power line connecting portions provided on the casing ; and a plurality of bendable power lines whose one ends connect to the power line connecting portion and whose other ends extend to a vehicle body outside the casing , to supply electric power from the vehicle body to the motor unit , wherein the in-wheel motor drive device is connected to a lower end of a strut extending in a vertical direction, is steerable about a steering axis (K) extending along the strut , wherein the plurality of power line connecting portions is disposed overlapping a spring sheet of a shock absorber provided in the strut when viewed in a steering axial direction, and wherein at least two power line connecting portions are disposed overlapping each other when viewed from the steering axial direction.
A cooking apparatus that three-dimensionally forms and cooks food, the cooking apparatus comprising: a main body ; an inner space formed in the main body and including a first space and a second space ; and a cartridge assembly installed in the inner space, wherein the cartridge assembly is configured to be capable of linear motion and rotational motion, wherein the cartridge assembly is located in the first space when the food is being formed, wherein the cartridge assembly is located in the second space when the formed food is being cooked, and wherein the cartridge assembly includes: a cartridge body having a plurality of cartridge mounts formed therein, a plurality of cartridge cases mounted on the plurality of cartridge mounts, and a plurality of cartridges disposed in the plurality of cartridge cases and having food ingredients accommodated therein. a main body ; an inner space formed in the main body and including a first space and a second space ; and a cartridge assembly installed in the inner space, wherein the cartridge assembly is configured to be capable of linear motion and rotational motion, wherein the cartridge assembly is located in the first space when the food is being formed, wherein the cartridge assembly is located in the second space when the formed food is being cooked, and wherein the cartridge assembly includes: a cartridge body having a plurality of cartridge mounts formed therein, a plurality of cartridge cases mounted on the plurality of cartridge mounts, and a plurality of cartridges disposed in the plurality of cartridge cases and having food ingredients accommodated therein. a cartridge body having a plurality of cartridge mounts formed therein, a plurality of cartridge cases mounted on the plurality of cartridge mounts, and a plurality of cartridges disposed in the plurality of cartridge cases and having food ingredients accommodated therein.
An aromatic polycarbonate oligomer solid comprising a repeating unit represented by the following general formula and having a weight average molecular weight of 500 to 10000, a low molecular weight component of 5.0 area% or less as measured by high performance liquid chromatography, and a loose bulk density of 0.30 g/cm 3 or more, wherein the weight average molecular weight is determined by gel permeation chromatography measurement, as described in the present specification, and wherein the low molecular weight component is a component containing a compound having an absolute molecular weight of not more than an absolute molecular weight of a transesterification condensate obtained by condensation of two molecules of an aromatic dihydroxy compound and three molecules of a carbonate precursor. wherein the weight average molecular weight is determined by gel permeation chromatography measurement, as described in the present specification, and wherein the low molecular weight component is a component containing a compound having an absolute molecular weight of not more than an absolute molecular weight of a transesterification condensate obtained by condensation of two molecules of an aromatic dihydroxy compound and three molecules of a carbonate precursor.
Heat exchanger comprising at least a heat exchanger space, a burner space and a water conducting channel , wherein the heat exchanger comprises a body having at least one slot and at least one cassette insertable into said at least one slot , said cassette comprising at least part of a water conducting channel extending between an inlet side and an outlet side of the cassette characterized in that the at least one cassette comprises a first wall and a labyrinth forming wall complex extending from said first wall forming a labyrinth shaped water channel part, open at a side opposite the first wall , wherein the labyrinth forming wall complex comprises two side walls extending along opposite longitudinal sides of the first side wall and cross walls connected to the first wall and alternatingly extending from one of the side walls towards the opposite side wall but stopping short from it to leave a relatively small gap .
A magnetic resonance (MR) apparatus , comprising: a body portion comprising a cavity having first and second ends and at least one opening situated at one of the first and second ends, the cavity defining a longitudinal axis (LA) extending between the first and second ends and the cavity having an exclusion zone (Ez) having opposed ends , wherein the exclusion zone (Ez) is situated between non-exclusion zones (Nz) which are situated between an opposed end of the exclusion zone (Ez) and the adjacent opening , wherein the exclusion zone (Ez) is configured to pass a radiation beam for therapeutic purposes; at least one main magnet for generating a main magnetic field comprising a substantially homogenous magnetic field within the cavity; an annular center shim (CS) of continuous shape with a uniform thickness and with opposed edges , wherein the center shim encircles and extends along a length of the longitudinal axis of the cavity and at least a part of the center shim (CS) is situated within the exclusion zone; and a plurality of discrete shims (DSs) , situated between the CS and at least one of the first and second ends, wherein the center shim and the plurality of discrete shims are configured to enhance uniformity of the main magnetic field within the cavity. a body portion comprising a cavity having first and second ends and at least one opening situated at one of the first and second ends, the cavity defining a longitudinal axis (LA) extending between the first and second ends and the cavity having an exclusion zone (Ez) having opposed ends , wherein the exclusion zone (Ez) is situated between non-exclusion zones (Nz) which are situated between an opposed end of the exclusion zone (Ez) and the adjacent opening , wherein the exclusion zone (Ez) is configured to pass a radiation beam for therapeutic purposes; at least one main magnet for generating a main magnetic field comprising a substantially homogenous magnetic field within the cavity; an annular center shim (CS) of continuous shape with a uniform thickness and with opposed edges , wherein the center shim encircles and extends along a length of the longitudinal axis of the cavity and at least a part of the center shim (CS) is situated within the exclusion zone; and a plurality of discrete shims (DSs) , situated between the CS and at least one of the first and second ends, wherein the center shim and the plurality of discrete shims are configured to enhance uniformity of the main magnetic field within the cavity.
A beverage making device for preparing a beverage suitable for human consumption, the beverage being espresso coffee or any other coffee with a fine-bubble top cream layer, comprising: a beverage unit for supplying said beverage; at least one nozzle in fluid communication with the beverage unit ; a dispensing spout provided with a cavity with a bottom wall and side walls (27, 29; 31); a central beverage collecting area in a bottom of the cavity of the dispensing spout , arranged so that the beverage exiting the nozzle flows in said central beverage collecting area at the bottom of said cavity ; at least two beverage dispensing apertures in said bottom wall , at opposite sides of said central beverage collecting area; for each beverage dispensing aperture , a bubble-squeezing member arranged between said central beverage collecting area and the respective beverage dispensing aperture , so that the beverage flows from said central beverage collecting area through said bubble squeezing members and towards the respective beverage dispensing aperture ; wherein said squeezing member forms a restricted flow passage (51; 53; 49) for said beverage, between the central beverage collecting area and the beverage dispensing aperture , and said bubble squeezing member comprises at least one projection extending from said bottom wall and from one side wall (29; 27) towards the opposite side wall (27; 29), and ending with a distal edge facing the opposite side wall (27; 29), said restricted passage for the beverage flow being formed between the respective edge and the opposite side wall . a beverage unit for supplying said beverage; at least one nozzle in fluid communication with the beverage unit ; a dispensing spout provided with a cavity with a bottom wall and side walls (27, 29; 31); a central beverage collecting area in a bottom of the cavity of the dispensing spout , arranged so that the beverage exiting the nozzle flows in said central beverage collecting area at the bottom of said cavity ; at least two beverage dispensing apertures in said bottom wall , at opposite sides of said central beverage collecting area; for each beverage dispensing aperture , a bubble-squeezing member arranged between said central beverage collecting area and the respective beverage dispensing aperture , so that the beverage flows from said central beverage collecting area through said bubble squeezing members and towards the respective beverage dispensing aperture ; wherein said squeezing member forms a restricted flow passage (51; 53; 49) for said beverage, between the central beverage collecting area and the beverage dispensing aperture , and said bubble squeezing member comprises at least one projection extending from said bottom wall and from one side wall (29; 27) towards the opposite side wall (27; 29), and ending with a distal edge facing the opposite side wall (27; 29), said restricted passage for the beverage flow being formed between the respective edge and the opposite side wall .
A joined body , comprising: a first member ; a second member ; and a joint formed of an oxide ceramic containing at least one of transition metals, the joint joining the first member to the second member , wherein a difference between the thermal expansion coefficient of the first member and the thermal expansion coefficient of the second member is 4.0 ppm/K or more, wherein the oxide ceramic contains a second component in addition to a first component, the first component being a main component and a transition metal, the second component being at least one of Li, Na, K, Ga, Si, Zr, Ti, Sn, Nb, Sb, and Ta, and wherein one of (i) and (ii) applies: (i) the oxide ceramic contains Fe as the first component and at least one of Si, Zr, Ti, Sn, Nb, Sb, and Ta as the second component; (ii) the oxide ceramic contains at least one of Cu and Ni as the first component and at least one of Li, Na, and K as the second component. a first member ; a second member ; and a joint formed of an oxide ceramic containing at least one of transition metals, the joint joining the first member to the second member , wherein a difference between the thermal expansion coefficient of the first member and the thermal expansion coefficient of the second member is 4.0 ppm/K or more, wherein the oxide ceramic contains a second component in addition to a first component, the first component being a main component and a transition metal, the second component being at least one of Li, Na, K, Ga, Si, Zr, Ti, Sn, Nb, Sb, and Ta, and wherein one of (i) and (ii) applies: (i) the oxide ceramic contains Fe as the first component and at least one of Si, Zr, Ti, Sn, Nb, Sb, and Ta as the second component; (ii) the oxide ceramic contains at least one of Cu and Ni as the first component and at least one of Li, Na, and K as the second component. (i) the oxide ceramic contains Fe as the first component and at least one of Si, Zr, Ti, Sn, Nb, Sb, and Ta as the second component; (ii) the oxide ceramic contains at least one of Cu and Ni as the first component and at least one of Li, Na, and K as the second component.
A fluid connector comprising: an adapter for connecting the connector to a container ; an outer sleeve connected to the adapter ; and a tubular body retained at least partially within the sleeve , wherein the adapter comprises a hollow rod that extends distally toward the tubular body and that is rigidly attached to a needle , and wherein the outer sleeve comprises a grip portion having a first dominant color and the tubular body comprises a second non-dominant color different from said first color , which encourages a user to hold the outer sleeve during manipulation of the connector . an adapter for connecting the connector to a container ; an outer sleeve connected to the adapter ; and a tubular body retained at least partially within the sleeve , wherein the adapter comprises a hollow rod that extends distally toward the tubular body and that is rigidly attached to a needle , and wherein the outer sleeve comprises a grip portion having a first dominant color and the tubular body comprises a second non-dominant color different from said first color , which encourages a user to hold the outer sleeve during manipulation of the connector .