mhurhangee/ep-ind-claims huggingface dataset:
A method for enabling token-based validation of the delivery of at least part of a segmented content item by one or more delivery nodes to a content processing device, said segmented content item being associated with at least one manifest file comprising one or more segment identifiers, said method comprising: said content processing device sending a first segment request message, said first segment request message comprising a first segment identifier associated with a first segment to said one or more delivery nodes; providing first validation information for validating a second segment request message comprising a second segment identifier, said first validation information comprising at least a first token and first timing information, wherein said first timing information is associated with the processing of said first segment request message by said delivery node; and, sending said first validation information to said content processing device in a first response message to said segment request message, said first response message comprising an URL wherein said first validation information is embedded. said content processing device sending a first segment request message, said first segment request message comprising a first segment identifier associated with a first segment to said one or more delivery nodes; providing first validation information for validating a second segment request message comprising a second segment identifier, said first validation information comprising at least a first token and first timing information, wherein said first timing information is associated with the processing of said first segment request message by said delivery node; and, sending said first validation information to said content processing device in a first response message to said segment request message, said first response message comprising an URL wherein said first validation information is embedded.
Ofatumumab for use in the treatment of relapsing multiple sclerosis, wherein ofatumumab is administered during a loading dose regimen of 3 separate 20 mg doses at weeks 0, 1 and 2 and thereafter during a maintenance dose regimen comprising administering 20 mg ofatumumab monthly starting at week four, and wherein ofatumumab is administered by subcutaneous (s.c.) injection.
Apparatus for use with a plurality of ablation-signal generators, the plurality of ablation-signal generators being configured to generate respective ablation signals having respective ablation-signal amplitudes, the apparatus comprising: a plurality of control-signal generators, configured to generate respective control signals having respective control-signal amplitudes and different respective control-signal frequencies; a plurality of signal adders, configured to produce respective composite signals for application to a subject, by adding the control signals to the respective ablation signals, the control-signal generators being configured to generate the control signals such that respective ratios between the control-signal amplitudes and the ablation-signal amplitudes are constant during the application of the composite signals to the subject; a plurality of controlled voltage dividers, configured to adjust respective amplitudes of the composite signals during the application of the composite signals to the subject; and one or more controllers, configured to control the adjusting of the amplitudes by the controlled voltage dividers, in response to respective currents of, and respective voltages of, the control signals, and based on the constant ratios. a plurality of control-signal generators, configured to generate respective control signals having respective control-signal amplitudes and different respective control-signal frequencies; a plurality of signal adders, configured to produce respective composite signals for application to a subject, by adding the control signals to the respective ablation signals, the control-signal generators being configured to generate the control signals such that respective ratios between the control-signal amplitudes and the ablation-signal amplitudes are constant during the application of the composite signals to the subject; a plurality of controlled voltage dividers, configured to adjust respective amplitudes of the composite signals during the application of the composite signals to the subject; and one or more controllers, configured to control the adjusting of the amplitudes by the controlled voltage dividers, in response to respective currents of, and respective voltages of, the control signals, and based on the constant ratios.
An apparatus comprising: an elongate arm; a rotary spray head assembly rotationally coupled to an end of the elongate arm, a rotating nozzle assembly rotationally coupled to the rotary spray head assembly; the apparatus being characterized by: a magnetic field source coupled to the rotary spray head assembly so as to generate a spatially changing magnetic field in accordance with a rotation of the rotary spray head assembly in relation to the end of the elongate arm; and a magnet field sensor carried in a fixed relation to the elongate arm, wherein the magnetic field sensor, in operation, generates a sensor signal that varies in accordance with the spatially changing magnetic field in accordance with the rotation of the rotary spray head assembly. an elongate arm; a rotary spray head assembly rotationally coupled to an end of the elongate arm, a rotating nozzle assembly rotationally coupled to the rotary spray head assembly; the apparatus being characterized by: a magnetic field source coupled to the rotary spray head assembly so as to generate a spatially changing magnetic field in accordance with a rotation of the rotary spray head assembly in relation to the end of the elongate arm; and a magnet field sensor carried in a fixed relation to the elongate arm, wherein the magnetic field sensor, in operation, generates a sensor signal that varies in accordance with the spatially changing magnetic field in accordance with the rotation of the rotary spray head assembly. a magnetic field source coupled to the rotary spray head assembly so as to generate a spatially changing magnetic field in accordance with a rotation of the rotary spray head assembly in relation to the end of the elongate arm; and a magnet field sensor carried in a fixed relation to the elongate arm, wherein the magnetic field sensor, in operation, generates a sensor signal that varies in accordance with the spatially changing magnetic field in accordance with the rotation of the rotary spray head assembly.
An infrared reflective film comprising a substrate and at least one infrared reflective layer, wherein said infrared reflective layer comprises an aminium radical cation compound in a crystalline state and an organic polymer, wherein said infrared reflective layer has a reflectance peak in the infrared region from 1250 nm to 1700 nm.
A method of producing a human polypeptide-of-interest, the method comprising: (a) expressing in a plant or plant cell transformed to express a fucosidase and a xylosidase in a subcellular compartment, a nucleic acid sequence encoding the human polypeptide-of-interest, such that the fucosidase, the xylosidase and the human polypeptide-of-interest are co-localized to said subcellular compartment of the plant or plant cell; and subsequently; (b) isolating the human polypeptide-of-interest. (a) expressing in a plant or plant cell transformed to express a fucosidase and a xylosidase in a subcellular compartment, a nucleic acid sequence encoding the human polypeptide-of-interest, such that the fucosidase, the xylosidase and the human polypeptide-of-interest are co-localized to said subcellular compartment of the plant or plant cell; and subsequently; (b) isolating the human polypeptide-of-interest.
Method for rolling a rolled stock produced in an ingot casting process in a rolling mill, wherein prior to rolling the rolled stock has the shape of a truncated pyramid with a base, an upper surface and four lateral surfaces (8a, 8b, 10a, 10b), in which: - during a first rolling stitch sequence, two opposing lateral surfaces (10a, 10b) of the rolled stock are rolled in a first direction ( R 1) such that at the end of the first rolling stitch sequence all cross-sectional surfaces (4, 6) of the rolled stock, which are oriented transverse to the rolling direction, have the same area, - the rolled stock is rotated, - during a second rolling stitch sequence, the same two opposing lateral surfaces (10, 10b) of the rolled stock are rolled in a second direction ( R 2) transverse to the first direction ( R 1). - during a first rolling stitch sequence, two opposing lateral surfaces (10a, 10b) of the rolled stock are rolled in a first direction ( R 1) such that at the end of the first rolling stitch sequence all cross-sectional surfaces (4, 6) of the rolled stock, which are oriented transverse to the rolling direction, have the same area, - the rolled stock is rotated, - during a second rolling stitch sequence, the same two opposing lateral surfaces (10, 10b) of the rolled stock are rolled in a second direction ( R 2) transverse to the first direction ( R 1).
An input device (22, 50) configured to allow a user to manipulate an image displayed by a user interface of a computer, comprising: a housing (34, 52). wherein the housing comprises a first end and a second end, and a front side and a back side which connect the first end and the second end; characterized by a first rotatable control knob (36, 38, 40) supported by the housing, the first rotatable control knob being configured for the user to perform a first manipulation of the image on the UI; and a second rotatable control knob (36, 38, 40) supported by the housing, the second rotatable control knob being configured for the user to perform a second manipulation of the image on the UI, wherein the second manipulation is different from the first manipulation, a third rotatable control knob (36, 38, 40) disposed on either the first end or the second end of the housing, the third rotatable control knob being configured for the user to perform a third manipulation of the image on the UI; a fourth rotatable control knob which provides control of focus stacking of the image displayed by the UI; wherein the first manipulation is one of zooming or panning of the image and the second manipulation is the other one of zooming or panning of the image, and wherein the first rotatable control knob is disposed on the first end of the housing, and the second rotatable control knob is disposed on the second end of the housing. a housing (34, 52). wherein the housing comprises a first end and a second end, and a front side and a back side which connect the first end and the second end; characterized by a first rotatable control knob (36, 38, 40) supported by the housing, the first rotatable control knob being configured for the user to perform a first manipulation of the image on the UI; and a second rotatable control knob (36, 38, 40) supported by the housing, the second rotatable control knob being configured for the user to perform a second manipulation of the image on the UI, wherein the second manipulation is different from the first manipulation, a third rotatable control knob (36, 38, 40) disposed on either the first end or the second end of the housing, the third rotatable control knob being configured for the user to perform a third manipulation of the image on the UI; a fourth rotatable control knob which provides control of focus stacking of the image displayed by the UI; wherein the first manipulation is one of zooming or panning of the image and the second manipulation is the other one of zooming or panning of the image, and wherein the first rotatable control knob is disposed on the first end of the housing, and the second rotatable control knob is disposed on the second end of the housing.
A method for producing nanostructures in and on organic or inorganic substrates comprising at least the following steps: a) providing a primary substrate having a predetermined refractive index; b) coating the primary substrate with a plurality of mediating layers each having a predetermined refractive index different from that of the primary substrate, wherein the sequence of the layers is arranged so that a predetermined gradient of the refractive index is generated between the primary substrate and the uppermost layer of the mediating layers; c) optionally coating the uppermost layer of the mediating layers with an additional top layer; d) depositing a nanostructured etching mask onto the uppermost layer of the composite substrate obtained after steps a)-b) or a)-c); e) generating protruding structures, in particular conical or pillar structures, or recessed structures, in particular holes, in at least the uppermost layer of the composite substrate by means of reactive ion etching, wherein the material of the plurality of mediating layers is selected from the group comprising SiOx (with 1<x<2) and SiOxNy (with y/y+x in the range from 0 to 0.5 and with N/(N+O) from 0% to 50%), the refractive index of the primary substrate is in the range from 1.46 to 2.01 and the refractive index of the uppermost layer of the composite substrate is in the range from 1.3 to 1.6. a) providing a primary substrate having a predetermined refractive index; b) coating the primary substrate with a plurality of mediating layers each having a predetermined refractive index different from that of the primary substrate, wherein the sequence of the layers is arranged so that a predetermined gradient of the refractive index is generated between the primary substrate and the uppermost layer of the mediating layers; c) optionally coating the uppermost layer of the mediating layers with an additional top layer; d) depositing a nanostructured etching mask onto the uppermost layer of the composite substrate obtained after steps a)-b) or a)-c); e) generating protruding structures, in particular conical or pillar structures, or recessed structures, in particular holes, in at least the uppermost layer of the composite substrate by means of reactive ion etching,
A work processing method of a lathe which brings a detection jig (t) corresponding to a rigid member attached to a turret of a tool post into contact with a work (w) attached to a spindle by moving the tool post or rotating the spindle in the lathe, correcting a tool post position or a spindle angle based on a position of the tool post or an angle of the spindle at the time of the contact, and processes the work (w), wherein the contact is performed by a first contact operation of driving the tool post or the spindle at a first speed so that the work (w) and the detection jig (t) contact each other, a return operation of separating the detection jig (t) and the work (w) from each other by a predetermined distance after the first contact operation, and a second contact operation of bringing the work (w) and the detection jig (t) into contact with each other at the same position at a second speed slower than the first speed after the separation and the correction is performed by obtaining a correction value based on the tool post position or the spindle angle at the time of the second contact, characterized in that a collision detection member compares a load of a tool post feed motor with a load set in a collision load setter of the collision detection member during the movement of the tool post and transmits a collision detection signal (g) to a retry member when the load of the feed motor exceeds the setting load.
Gas oven having a cover plate and a burner, which comprises a gas mixing compartment, an outer burner cap and a central burner cap, wherein the gas mixing compartment in turn comprises an outer chamber and a central chamber, and wherein the outer burner cap is placed on the outer chamber and the central burner cap is placed on the central chamber, wherein a central drip catcher also exists, which is disposed between the outer chamber and the central chamber and serves to collect and accommodate drips falling down between the outer chamber and the central chamber, characterised in that a first gap is embodied between the central drip catcher and the outer chamber, and opens into the compartment below the cover plate and supplies additional air to the burner from below the cover plate.
A rod guide for a rod of a rod lock, said rod being intended to be guided in an upright manner relative to the mounting plane, characterised by a block which is equipped with a threaded bore and which can be screwed onto a stay bolt which is equipped with a thread, wherein the threaded bore is laterally open by an axial slot such that the block can also be laterally fitted onto the stay bolt, and by protrusions (54, 56) located parallel to the mounting plane, on one side of the block, one being located on the upper edge which is remote from the mounting plane, and one being located on the lower edge which is near to the mounting plane, for gripping the rod, such as the two narrow edges of a flat strip rod.
Controllable readout circuit for performing a self-referenced read operation on a memory device comprising a plurality of magnetic random access memory (MRAM) cells, each MRAM cell having a first storage state with a first resistance value and second storage state with a second resistance value, said controllable readout circuit comprising: a selecting device for selecting one of the MRAM cells; a sense circuit adapted to source a sense current for measuring the first and second resistance value of the selected MRAM cell during a first and second read cycle, respectively; the sense circuit comprising a sample and hold circuit for storing said first resistance value, and a differential amplifier circuit for comparing said second resistance value to said stored first resistance value; and a control circuit adapted to provide a pulse-shaped timing signal (C charge) having a pulse duration controlling the duration of the first read cycle and the second read cycle, the control circuit being further adapted for controlling the timing signal (C charge) after manufacturing the controllable readout circuit; characterized in that said control circuit comprises a reference time device providing a time reference voltage (V ref_time), the reference time device comprising a second resistance fuse circuit including one or several fusible resistors (R 01, R 11, R 21 and R 31); and in that said controlling the timing signal (C charge) comprises adjusting the time reference voltage (V ref_time) using the second resistance fuse circuit. a selecting device for selecting one of the MRAM cells; a sense circuit adapted to source a sense current for measuring the first and second resistance value of the selected MRAM cell during a first and second read cycle, respectively; the sense circuit comprising a sample and hold circuit for storing said first resistance value, and a differential amplifier circuit for comparing said second resistance value to said stored first resistance value; and a control circuit adapted to provide a pulse-shaped timing signal (C charge) having a pulse duration controlling the duration of the first read cycle and the second read cycle, the control circuit being further adapted for controlling the timing signal (C charge) after manufacturing the controllable readout circuit; characterized in that said control circuit comprises a reference time device providing a time reference voltage (V ref_time), the reference time device comprising a second resistance fuse circuit including one or several fusible resistors (R 01, R 11, R 21 and R 31); and in that said controlling the timing signal (C charge) comprises adjusting the time reference voltage (V ref_time) using the second resistance fuse circuit.
Method for identification (53, 73) of an impairment within a telecommunication line, the method comprising determining first measurement data, Hlog, that characterize a transfer function of the telecommunication line, characterised in that the method further comprises determining at least one periodicity interval (Δf 1, Δf 2) of the transfer function wherein the impairment is identified depending on said determining, estimating a location (P; P1, P2) of the impairment within the telecommunication line depending on the periodicity interval (Δf 1, Δf 2) and determining second measurement data (N1, N2) that characterize a noise level at end points (16, 18) of the telecommunication line and comparing these noise levels (N1, N2) with each other.
A method of producing a coded continuous wave transmitter signal (106, 404, 714, 1003, 1011a-1011h, 1102, 1020) the method comprising: producing a continuous wave carrier signal; generating a code by defining a pulse by a plurality of frequency domain components to create a frequency domain signal, adding a respective phase value of a plurality of phase values to each of the plurality of frequency domain components to create a modified frequency domain signal, and performing an inverse frequency domain transform of the modified frequency domain signal; and modulating the continuous wave carrier signal with the code to produce the coded continuous wave transmitter signal; transmitting the coded continuous wave transmitter signal using a transmitter; and receiving the coded continuous wave transmitter signal using a receiver in substantially a same location as the transmitter. producing a continuous wave carrier signal; generating a code by defining a pulse by a plurality of frequency domain components to create a frequency domain signal, adding a respective phase value of a plurality of phase values to each of the plurality of frequency domain components to create a modified frequency domain signal, and performing an inverse frequency domain transform of the modified frequency domain signal; and modulating the continuous wave carrier signal with the code to produce the coded continuous wave transmitter signal; transmitting the coded continuous wave transmitter signal using a transmitter; and receiving the coded continuous wave transmitter signal using a receiver in substantially a same location as the transmitter.
A printing apparatus for printing a three-dimensional object, comprising: an operative surface; at least one supply hopper for depositing layers of powder onto the operative surface; and an energy source for emitting at least one energy beam onto the layers of powder, characterised in that the supply hopper and energy source are configured such that when a topmost layer of powder is being deposited onto an underlying layer of powder on the operative surface: the direction travelled by the supply hopper when depositing the topmost layer is different to the direction travelled by the supply hopper when depositing the underlying layer; and at least one energy beam is emitted onto the topmost layer and at least one further energy beam is emitted onto the underlying layer, simultaneously, to melt, fuse or sinter the topmost and underlying layers. an operative surface; at least one supply hopper for depositing layers of powder onto the operative surface; and an energy source for emitting at least one energy beam onto the layers of powder, the direction travelled by the supply hopper when depositing the topmost layer is different to the direction travelled by the supply hopper when depositing the underlying layer; and at least one energy beam is emitted onto the topmost layer and at least one further energy beam is emitted onto the underlying layer, simultaneously, to melt, fuse or sinter the topmost and underlying layers.