mhurhangee/ep-ind-claims huggingface dataset:
A probe, comprising: a probe antenna constructed of a dielectric rod connected to a waveguide, the probe antenna having a far-field region; a transmitter coupled to the probe antenna; a receiver coupled to the probe antenna; and circuitry including hardware configured to communicate with the transmitter to enable the transmitter to direct a pulse of electromagnetic energy to the probe antenna at first instants of time whereby the dielectric rod of the probe antenna emits at least a portion of the pulse of electromagnetic energy in the far-field region of the probe antenna, and to communicate with the receiver to enable the receiver to receive a reflection signal from the probe antenna at second instants of time following the first instants of time using time domain gating in which the receiver is only enabled to receive the reflection signal from the probe antenna during the second instants of time, the hardware configured to determine a material property of a material within the far-field region of the probe antenna by analyzing the reflection signal. a probe antenna constructed of a dielectric rod connected to a waveguide, the probe antenna having a far-field region; a transmitter coupled to the probe antenna; a receiver coupled to the probe antenna; and circuitry including hardware configured to communicate with the transmitter to enable the transmitter to direct a pulse of electromagnetic energy to the probe antenna at first instants of time whereby the dielectric rod of the probe antenna emits at least a portion of the pulse of electromagnetic energy in the far-field region of the probe antenna, and to communicate with the receiver to enable the receiver to receive a reflection signal from the probe antenna at second instants of time following the first instants of time using time domain gating in which the receiver is only enabled to receive the reflection signal from the probe antenna during the second instants of time, the hardware configured to determine a material property of a material within the far-field region of the probe antenna by analyzing the reflection signal.
A Form-I crystal of 2-{4-[N-(5,6-diphenylpyrazin-2-yl)-N-isopropylamino]butyloxy}-N-(methylsulfonyl)acetamide, showing diffraction peaks in its X-ray powder diffraction spectrum at least at the following angles of diffraction 2θ: 9.4 degrees, 9.8 degrees, 17.2 degrees and 19.4 degrees, wherein the X-ray powder diffraction diagram is obtained by using Cu Kα radiation.
A method of producing a hard coating layer-laminated mold resin comprising: a transfer material preparation step of preparing a transfer material including a multi-layered sheet including a substrate sheet and a protective layer that is disposed on one surface of the substrate sheet and for protecting at least a part of a surface of a mold resin, the protective layer being an uppermost layer of the multi-layered sheet, the protective layer including a product of an active energy ray-curable resin cured or half-cured by active energy ray, and the protective layer having a thermally reactive group and a polysiloxane chain, and the thermally reactive group being capable of reacting and thermally curing with the mold resin in a thermally uncured and/or half-cured state; a resin preparation step of preparing the thermally uncured and/or half-cured mold resin; a disposition step of disposing the transfer material so that the protective layer is exposed; and a transfer step of bringing into contact and heating the thermally uncured and/or half-cured mold resin and the protective layer to transfer a hard coating layer to the mold resin, the hard coating layer being produced by thermally curing the protective layer, wherein, in the transfer step, the protective layer and the mold resin are reacted and chemically bonded to each other, the thermally uncured and/or half-cured mold resin is cured, and the protective layer is further cured to form the hard coating layer. a transfer material preparation step of preparing a transfer material including a multi-layered sheet including a substrate sheet and a protective layer that is disposed on one surface of the substrate sheet and for protecting at least a part of a surface of a mold resin, the protective layer being an uppermost layer of the multi-layered sheet, the protective layer including a product of an active energy ray-curable resin cured or half-cured by active energy ray, and the protective layer having a thermally reactive group and a polysiloxane chain, and the thermally reactive group being capable of reacting and thermally curing with the mold resin in a thermally uncured and/or half-cured state; a resin preparation step of preparing the thermally uncured and/or half-cured mold resin; a disposition step of disposing the transfer material so that the protective layer is exposed; and a transfer step of bringing into contact and heating the thermally uncured and/or half-cured mold resin and the protective layer to transfer a hard coating layer to the mold resin, the hard coating layer being produced by thermally curing the protective layer, wherein, in the transfer step, the protective layer and the mold resin are reacted and chemically bonded to each other, the thermally uncured and/or half-cured mold resin is cured, and the protective layer is further cured to form the hard coating layer.
A low thermal expansion alloy comprising, by mass%, C: 0.040% or less, Si: 0.25% or less, Mn: 0.15 to 0.50%, Cr: 8.50 to 10.0%, Ni: 0 to 5.00%, Co: 43.0 to 56.0%, S: 0 to 0.050%, Se: 0 to 0.050% and a balance of Fe and unavoidable impurities, contents of Ni, Co, and Mn represented by [Ni], [Co], and [Mn] satisfying 55.7≤2.2[Ni]+[Co]+1.7[Mn]≤56.7, a structure of the alloy being an austenite single phase investigated by X-ray diffraction; wherein the low thermal expansion alloy has a Young's modulus of 160 GPa or more, a thermal expansion coefficient within ±1.0×10 -6 /°C, and a martensite transformation point lower than -196°C, all measured as described in the description. C: 0.040% or less, Si: 0.25% or less, Mn: 0.15 to 0.50%, Cr: 8.50 to 10.0%, Ni: 0 to 5.00%, Co: 43.0 to 56.0%, S: 0 to 0.050%, Se: 0 to 0.050% and a balance of Fe and unavoidable impurities, contents of Ni, Co, and Mn represented by [Ni], [Co], and [Mn] satisfying 55.7≤2.2[Ni]+[Co]+1.7[Mn]≤56.7, a structure of the alloy being an austenite single phase investigated by X-ray diffraction; wherein the low thermal expansion alloy has a Young's modulus of 160 GPa or more, a thermal expansion coefficient within ±1.0×10 -6 /°C, and a martensite transformation point lower than -196°C, all measured as described in the description.
A dispersion plate comprising: a cylindrical body; a plurality of blades provided along a circumferential direction of the cylindrical body, the plurality of blades being extended from an outer circumference of the cylindrical body to a center of the cylindrical body, so as to form a passage opening surrounded by tips of the plurality of blades, the passage opening being provided in the center of the cylindrical body; a plurality of shielding plates (26, 27, 28) provided so as to be distanced from the plurality of blades in an axial direction of the cylindrical body, the shielding plates (26, 27, 28) covering the passage opening, characterized in that tips (26b, 27b, 28b) of the plurality of shielding plates (26, 27, 28) extend toward respective positions different from each other in the axial direction of the cylindrical body. a cylindrical body; a plurality of blades provided along a circumferential direction of the cylindrical body, the plurality of blades being extended from an outer circumference of the cylindrical body to a center of the cylindrical body, so as to form a passage opening surrounded by tips of the plurality of blades, the passage opening being provided in the center of the cylindrical body; a plurality of shielding plates (26, 27, 28) provided so as to be distanced from the plurality of blades in an axial direction of the cylindrical body, the shielding plates (26, 27, 28) covering the passage opening, characterized in that tips (26b, 27b, 28b) of the plurality of shielding plates (26, 27, 28) extend toward respective positions different from each other in the axial direction of the cylindrical body.
A method for co-processing H 2 S and CO 2 in an electrolyzer that comprises an anode, a cathode, and an electrolyte positioned between and in electrochemical contact with the anode and the cathode, the method comprising: feeding a first gas stream comprising H 2 S to the anode of the electrolyzer; feeding a second gas stream comprising CO 2 to the cathode of the electrolyzer; splitting H 2 S of the first gas stream into protons and elemental sulfur at the anode; transferring the protons split from the H 2 S of the first gas stream from the anode across the electrolyte to the cathode; and hydrogenating the CO 2 from the second gas stream with the protons that were transferred from the anode, wherein the electrolyte is a solid electrolyte. feeding a first gas stream comprising H 2 S to the anode of the electrolyzer; feeding a second gas stream comprising CO 2 to the cathode of the electrolyzer; splitting H 2 S of the first gas stream into protons and elemental sulfur at the anode; transferring the protons split from the H 2 S of the first gas stream from the anode across the electrolyte to the cathode; and hydrogenating the CO 2 from the second gas stream with the protons that were transferred from the anode, wherein the electrolyte is a solid electrolyte.
A terminal device in a content distribution system including a server device and said terminal device, said terminal device comprising: a receiving unit (903, 905) configured to receive, from said server device, an encrypted content, and content-related information including (II-i) pieces of transmission date and time information of the encrypted content and (II-ii) a plurality of content decryption keys for decrypting the encrypted content; a falsification detecting unit configured to check the content-related information; and a content use control unit configured to control use of the encrypted content, wherein the content-related information received by said receiving unit has been encrypted in Cipher Block Chaining mode, the content-related information includes the plurality of content decryption keys, and each of the pieces of transmission date and time information is arranged in an encryption block immediately preceding an encryption block for a corresponding one of the plurality of content decryption keys, characterised in that: said falsification detecting unit is configured to check whether or not all the pieces of transmission date and time information in the decrypted content-related information are identical, and judge that the decrypted content-related information is incorrect when all the pieces of transmission date and time information are not identical, and said content use control unit is configured to limit the use of the encrypted content when said falsification detecting unit judges that the decrypted content-related information is incorrect. a receiving unit (903, 905) configured to receive, from said server device, an encrypted content, and content-related information including (II-i) pieces of transmission date and time information of the encrypted content and (II-ii) a plurality of content decryption keys for decrypting the encrypted content; a falsification detecting unit configured to check the content-related information; and a content use control unit configured to control use of the encrypted content, said falsification detecting unit is configured to check whether or not all the pieces of transmission date and time information in the decrypted content-related information are identical, and judge that the decrypted content-related information is incorrect when all the pieces of transmission date and time information are not identical, and said content use control unit is configured to limit the use of the encrypted content when said falsification detecting unit judges that the decrypted content-related information is incorrect.
A motor vehicle door, in particular a motor vehicle side door for a passenger vehicle, having a reinforcing element configured in planar fashion, characterized in that the reinforcing element has a first material layer exhibiting a stone, and the reinforcing element is connected to the motor vehicle door in planar fashion.
A magnetic sensor arrangement (100, 150, 240), comprising: - a magnet assembly (25, 31) and a magnetic sensor; the magnet assembly (25, 31) forming a magnetic field having at least two magnetic field components (Bp, Bs) with different angular periodicities at the location of the magnetic sensor, and the magnetic sensor including means for sensing the different magnetic field components (Bp, Bs) to produce at least a first and a second sensor element signal; and - a computing element for receiving the at least first and second signals and for combining them to produce a unique angular position of the magnet relative to the sensor. - a magnet assembly (25, 31) and a magnetic sensor; the magnet assembly (25, 31) forming a magnetic field having at least two magnetic field components (Bp, Bs) with different angular periodicities at the location of the magnetic sensor, and the magnetic sensor including means for sensing the different magnetic field components (Bp, Bs) to produce at least a first and a second sensor element signal; and - a computing element for receiving the at least first and second signals and for combining them to produce a unique angular position of the magnet relative to the sensor.
Method for generating an electronic signature of a document combined with a digest obtained by a given hash function, comprising the steps of: (a) data processing means of a server receiving said digest and a zero-knowledge proof that said digest is indeed the result of data processing means of an item of equipment applying said given hash function to said document, said given hash function being a cryptographic hash function iterating a compression function following the Merkle-Damgård principle and said zero-knowledge proof that said digest is indeed the result of applying said given hash function to said document being a zero-knowledge proof, generated by the data processing means of the item of equipment, that the item of equipment has a preimage of the compression function such that said digest is indeed the result of applying an iteration of the compression function to said preimage; (b) the data processing means of the server checking that said zero-knowledge proof is valid; (c) the data processing means of the server generating an electronic signature of the document on the basis of said digest. (a) data processing means of a server receiving said digest and a zero-knowledge proof that said digest is indeed the result of data processing means of an item of equipment applying said given hash function to said document, said given hash function being a cryptographic hash function iterating a compression function following the Merkle-Damgård principle and said zero-knowledge proof that said digest is indeed the result of applying said given hash function to said document being a zero-knowledge proof, generated by the data processing means of the item of equipment, that the item of equipment has a preimage of the compression function such that said digest is indeed the result of applying an iteration of the compression function to said preimage; (b) the data processing means of the server checking that said zero-knowledge proof is valid; (c) the data processing means of the server generating an electronic signature of the document on the basis of said digest.
A filter insert (100,200) for being removably arranged in a filter housing (105,205), wherein the filter insert (100,200) comprises a first actuation means positioned at a first end of the filter insert, wherein the first actuation means comprises an external contact surface defining a projection or recess, wherein the projection or recess forms part of a structure with varying extension in an axial direction of the filter insert (100,200) along a circumferential direction of the filter insert in such that said first actuation means is adapted for being actuated by a corresponding second actuation means of a filter housing lid for controlling a relative axial movement between the filter insert and the filter housing lid and the filter insert (100,200) further comprises a first guiding means (140,204) for guiding the filter insert relative to the filter housing during insertion of the filter insert into the filter housing, wherein the first guiding means is separate from the first actuation means and further axially spaced from the first actuation means wherein the filter insert (100,200) comprises a first end panel at the first end of the filter insert and wherein the first actuation means is rigidly attached to or forms an integral part of the first end panel, and the filter insert (100,200) comprises a second end panel (110,210) at a second end of the filter insert, wherein the second end is located opposite said first end, wherein the second end panel (110,210) is provided with a tubular structure (150, 206), and wherein in at least a part of the first guiding means forms an integral part of or is rigidly attached to the tubular structure, characterized in that the first guiding means comprises at least one radially inwards extending projection. wherein the filter insert (100,200) comprises a first end panel at the first end of the filter insert and wherein the first actuation means is rigidly attached to or forms an integral part of the first end panel, and the filter insert (100,200) comprises a second end panel (110,210) at a second end of the filter insert, wherein the second end is located opposite said first end, wherein the second end panel (110,210) is provided with a tubular structure (150, 206), and wherein in at least a part of the first guiding means forms an integral part of or is rigidly attached to the tubular structure, characterized in that the first guiding means comprises at least one radially inwards extending projection.
Method for testing a mould shape quality of an ear mould customized to an ear canal of a user by means of a mould testing system, wherein - the customized ear mould comprises an outer contour moulded to conform with the ear canal; and an inner passage through the customized ear mould that is in use directed into the ear canal to be in acoustic communication therewith; and - the mould testing system comprises an acoustic generator and a microphone arranged in a test housing with an open end that is connectable to the inner passage of the ear mould; wherein the test housing is configured to form a closed volume with the ear canal, wherein the closed volume comprises the acoustic generator and the microphone; and wherein the method comprises - inserting the ear mould into the ear canal; - connecting the test housing with the open end to the inner passage of the ear mould; - using the acoustic generator for generating an acoustic signal (Sg) into the ear canal via the inner passage; - using the microphone for measuring an acoustic signal (Sr) from the ear canal; - comparing the measured signal (Sm) with a reference signal (Se); and - providing a feedback signal (Sf) based on the said comparison wherein the feedback signal (Sf) is a measure for the mould shape quality of the customized ear mould. - the customized ear mould comprises an outer contour moulded to conform with the ear canal; and an inner passage through the customized ear mould that is in use directed into the ear canal to be in acoustic communication therewith; and - the mould testing system comprises an acoustic generator and a microphone arranged in a test housing with an open end that is connectable to the inner passage of the ear mould; wherein the test housing is configured to form a closed volume with the ear canal, wherein the closed volume comprises the acoustic generator and the microphone; - inserting the ear mould into the ear canal; - connecting the test housing with the open end to the inner passage of the ear mould; - using the acoustic generator for generating an acoustic signal (Sg) into the ear canal via the inner passage; - using the microphone for measuring an acoustic signal (Sr) from the ear canal; - comparing the measured signal (Sm) with a reference signal (Se); and - providing a feedback signal (Sf) based on the said comparison wherein the feedback signal (Sf) is a measure for the mould shape quality of the customized ear mould.
Water supply control system for a washing machine comprising a washing drum that is rotatably driven in a suds container and comprising a recirculating system (5, 6, 7) for injecting water, which is required for wet washing and is supplied in individual water supply cycles I to n, into the laundry located in the washing drum, wherein, when the washing programme starts, the mass of the laundry introduced into the washing drum is first determined and, in a first water supply cycle I, a certain amount of water is supplied on the basis of the load and, in a variable reverse phase Δt1 of the washing drum, which is temporally adjusted to the load, is absorbed by the laundry during resorting and, in a subsequent drum acceleration phase Δt2, is first completely distributed in the laundry by being recirculated and, during a vertical drum acceleration, is driven out again, wherein the amount of water that is driven out is determined and compared with an amount of water which is predetermined by the load, in order to either stop the water supply and start the heating process or to follow up with further water supply cycles II to n until the predetermined amount of water has been reached.
An apparatus for deployment and retrieval of a self-expanding intravascular stent, the apparatus comprising: an intravascular delivery wire having a distal portion and a proximal portion; and at least one ring of compliant material fixedly mounted over at least a portion of the intravascular delivery wire, said at least one ring of compliant material being configured to releasably mount a self-expanding intravascular stent on said intravascular delivery wire, characterized in that said intravascular delivery wire comprises a stepped intravascular delivery wire, wherein said distal portion of the intravascular delivery wire is a stepped distal portion having a smaller diameter than said proximal portion of the intravascular delivery wire, wherein said stepped portion of said stepped intravascular delivery wire forms a hard stop proximal to said at least one ring of compliant material operative to restrict movement of a self-expanding intravascular stent releasably mounted over said at least one ring of compliant material from advancing proximally over the intravascular delivery wire. an intravascular delivery wire having a distal portion and a proximal portion; and at least one ring of compliant material fixedly mounted over at least a portion of the intravascular delivery wire, said at least one ring of compliant material being configured to releasably mount a self-expanding intravascular stent on said intravascular delivery wire, characterized in that said intravascular delivery wire comprises a stepped intravascular delivery wire, wherein said distal portion of the intravascular delivery wire is a stepped distal portion having a smaller diameter than said proximal portion of the intravascular delivery wire, wherein said stepped portion of said stepped intravascular delivery wire forms a hard stop proximal to said at least one ring of compliant material operative to restrict movement of a self-expanding intravascular stent releasably mounted over said at least one ring of compliant material from advancing proximally over the intravascular delivery wire.