mhurhangee/patent-ind-claim-en huggingface dataset:
A photochromic optical article comprising: an optical substrate; and an at least partial anisotropic layer disposed on the at least a portion of the surface of the substrate, wherein the anisotropic layer comprises: an anisotropic polymer; a photochromic-dichroic dye, a photochromic dye, or combinations thereof; a mesogenic hindered amine light stabilizer; and a mesogenic antioxidant, wherein the moles of mesogenic antioxidant is present in an amount greater than the moles of mesogenic hindered amine light stabilizer. an optical substrate; and an at least partial anisotropic layer disposed on the at least a portion of the surface of the substrate, wherein the anisotropic layer comprises: an anisotropic polymer; a photochromic-dichroic dye, a photochromic dye, or combinations thereof; a mesogenic hindered amine light stabilizer; and a mesogenic antioxidant, wherein the moles of mesogenic antioxidant is present in an amount greater than the moles of mesogenic hindered amine light stabilizer. an anisotropic polymer; a photochromic-dichroic dye, a photochromic dye, or combinations thereof; a mesogenic hindered amine light stabilizer; and a mesogenic antioxidant, wherein the moles of mesogenic antioxidant is present in an amount greater than the moles of mesogenic hindered amine light stabilizer.
A blade-shaped cutting insert , comprising: opposing first and second insert side surfaces with a peripheral surface extending therebetween; and a first cutting portion having a first primary cutting edge extending between the first and second insert side surfaces , defining a maximum insert width (W MAX ) of the cutting insert , the peripheral surface including first and second diverging flank surfaces and an upper surface , the first and second diverging flank surfaces bisected by a first plane (P1) transverse to the upper surface , wherein: the cutting insert has a maximum insert length (L MAX ) measured perpendicular to the first plane (P1), and a maximum insert height (H MAX ) measured parallel to the first plane (P 1), the maximum insert length (L MAX ) is more than sixteen times greater than the maximum insert width (W MAX ), and the maximum insert height (H MAX ) is more than ten times greater than the maximum insert width (W MAX ), characterised in that , the cutting insert is manufactured from cemented carbide and in that the cutting insert is devoid of insert receiving pockets. opposing first and second insert side surfaces with a peripheral surface extending therebetween; and a first cutting portion having a first primary cutting edge extending between the first and second insert side surfaces , defining a maximum insert width (W MAX ) of the cutting insert , the peripheral surface including first and second diverging flank surfaces and an upper surface , the first and second diverging flank surfaces bisected by a first plane (P1) transverse to the upper surface , wherein: the cutting insert has a maximum insert length (L MAX ) measured perpendicular to the first plane (P1), and a maximum insert height (H MAX ) measured parallel to the first plane (P 1), the maximum insert length (L MAX ) is more than sixteen times greater than the maximum insert width (W MAX ), and the maximum insert height (H MAX ) is more than ten times greater than the maximum insert width (W MAX ), characterised in that , the cutting insert is manufactured from cemented carbide and in that the cutting insert is devoid of insert receiving pockets.
A management device , managing a network comprising a master device and a plurality of slave devices connected to the master device , the management device comprising: a ring topology assessment unit , assessing whether a ring topology configured from the slave devices is able to be generated based on designed network configuration information (D1) created by a user and slave information representing unique information per type of each of the slave devices , wherein the slave information comprises port information of each of the slave devices , and each of the port information comprises information of a ring start port (X2) and a ring end port (X3) supporting the ring topology, wherein the ring topology assessment unit is adapted to prompt the user with the information of the ring start port (X2) and the ring end port (X3) with which the ring topology is to be generated, wherein the ring topology assessment unit is adapted to assess whether the ring topology is able to be generated based on whether the ring end port (X3) with which the ring topology is to be generated is an empty port, in the case the ring topology assessment unit assesses that the ring topology is able to be generated, the ring topology assessment unit configures the ring topology according to a confirmation instruction from the user. a ring topology assessment unit , assessing whether a ring topology configured from the slave devices is able to be generated based on designed network configuration information (D1) created by a user and slave information representing unique information per type of each of the slave devices , wherein the slave information comprises port information of each of the slave devices , and each of the port information comprises information of a ring start port (X2) and a ring end port (X3) supporting the ring topology, wherein the ring topology assessment unit is adapted to prompt the user with the information of the ring start port (X2) and the ring end port (X3) with which the ring topology is to be generated, wherein the ring topology assessment unit is adapted to assess whether the ring topology is able to be generated based on whether the ring end port (X3) with which the ring topology is to be generated is an empty port, in the case the ring topology assessment unit assesses that the ring topology is able to be generated, the ring topology assessment unit configures the ring topology according to a confirmation instruction from the user.
A pharmaceutically acceptable salt of the compound 4-amino-l-( -2-(4-aminobutyl)-8-benzyl-5-isobutyl-4,7,10-trioxo-14-phenyl-3,6,9,12-tetraazapentadecan-1-acyl)piperidine-4-carboxylic acid represented by formula (I), wherein the pharmaceutically acceptable salt is an inorganic salt or an organic salt, preferably an acetate, a hydrochloride, a phosphate, a citrate, a benzoate or a fumarate.
A pipe conduit panel for guiding at least one connecting pipe of an underfloor heating system, comprising a laying plate into which at least one first pipe guide channel that is open towards the upper side of the laying plate is brought in for receiving a connecting pipe, wherein the first pipe guide channel comprises at least one routing section having a section start and a section end , characterized in that the first pipe guide channel is formed such from the section start to the section end that a connecting pipe laid in the first pipe guide channel is transferred from a first laying plane at the section start into a second laying plane at the section end relative to the upper side .
A security device comprising: a plastic substrate , a first optical structure comprising a patterned thin film layer having portions where a layer material is present and at least one portion where the layer material is absent providing a window therein, formed on the substrate , and a second optical structure supported by the substrate , characterized in that the patterned thin film layer is a patterned aluminum reflector layer; and the second optical structure is a coating of color shifting ink, and either (i) the first and second optical structures are provided on the same side of the substrate and the second optical structure is coated over the first optical structure so that a part of the second optical structure is visible from the opposite side of the substrate through the window of the patterned thin film ; or (ii) the first optical structur is formed on one side of the substrate and the second optical structure is coated on the opposite side of the substrate so that a part of the second optical structure is visible through the window of the patterned thin film from the side of the substrate on which the patterned thin film is provided.
A pharmaceutical composition which is a self-emulsifying drug delivery system (SEDDS), a self-microemulsifying drug delivery system (SMEDDS), or a self-nanoemulsifying drug delivery system (SNEDDS); said pharmaceutical composition comprising the compound 2-(2,2-difluoro-propyl)-5-[1-(2-fluoro-6-methylphenyl)-piperidin-4-yl]-7-(2-trifluoromethyl-benzyl)-2,4,5,7-tetrahydro-pyrazolo[3,4-d]pyrimidin-6-one: wherein said compound is in free base form, or in a pharmaceutically acceptable salt form; wherein said pharmaceutical composition comprises a mixture of excipients comprising • one or more lipophilic excipient(s); • one or more hydrophilic surfactant(s); and • optionally one or more hydrophilic co-solvent(s). wherein said compound is in free base form, or in a pharmaceutically acceptable salt form; wherein said pharmaceutical composition comprises a mixture of excipients comprising • one or more lipophilic excipient(s); • one or more hydrophilic surfactant(s); and • optionally one or more hydrophilic co-solvent(s). • one or more lipophilic excipient(s); • one or more hydrophilic surfactant(s); and • optionally one or more hydrophilic co-solvent(s).
Method for wireless communication between a first wireless power transfer coil of a first node and a second wireless power transfer coil of a second node , the method comprising: communicating a communication signal between the first and the second power transfer coils by generating a magnetic field by one of the first and second power transfer coils and receiving the magnetic field in the other one of the first and second power transfer coils , characterised in that the method comprises: determining a first time delay (T 3 -T 6 ) for communicating between the first and second power transfer coils , and prefixing a carrier signal having a first duration (T 5' -T d ) equal to or larger than the first time delay (T 3 -T 6 ) to the communication signal . communicating a communication signal between the first and the second power transfer coils by generating a magnetic field by one of the first and second power transfer coils and receiving the magnetic field in the other one of the first and second power transfer coils , characterised in that the method comprises: determining a first time delay (T 3 -T 6 ) for communicating between the first and second power transfer coils , and prefixing a carrier signal having a first duration (T 5' -T d ) equal to or larger than the first time delay (T 3 -T 6 ) to the communication signal . determining a first time delay (T 3 -T 6 ) for communicating between the first and second power transfer coils , and prefixing a carrier signal having a first duration (T 5' -T d ) equal to or larger than the first time delay (T 3 -T 6 ) to the communication signal .
Computed tomography system with a contactless data signal transfer, comprising: - at least one longitudinally slit coaxial conductor , - at least one radiofrequency transmission unit which feeds a radiofrequency carrier signal, modulated with a data signal to be transferred, into the coaxial conductor , - at least one longitudinally slit coaxial coupling conductor which is embodied to receive the emitted modulated radiofrequency carrier signal from the near field of the coaxial conductor , - at least one radiofrequency reception unit which is electrically connected to the coupling conductor and embodied to extract the data signal from the received modulated radiofrequency carrier signal, - wherein the coaxial conductor is arranged on a rotating gantry part or a stationary gantry part and the coupling conductor is correspondingly arranged on the stationary gantry part or the rotating gantry part . - at least one longitudinally slit coaxial conductor , - at least one radiofrequency transmission unit which feeds a radiofrequency carrier signal, modulated with a data signal to be transferred, into the coaxial conductor , - at least one longitudinally slit coaxial coupling conductor which is embodied to receive the emitted modulated radiofrequency carrier signal from the near field of the coaxial conductor , - at least one radiofrequency reception unit which is electrically connected to the coupling conductor and embodied to extract the data signal from the received modulated radiofrequency carrier signal, - wherein the coaxial conductor is arranged on a rotating gantry part or a stationary gantry part and the coupling conductor is correspondingly arranged on the stationary gantry part or the rotating gantry part .
An electrically conductive paste comprising: a flake-like silver powder A having a particle size in the range of 1 μm or more and 15 μm or less and having a median diameter D50 of 2 μm or more and 5 μm or less; a spherical silver powder D having a bimodal particle size distribution with a peak having a particle size in the range of 200 nm or more and 800 nm or less and having a median diameter D50 of 300 nm or more and 600 nm or less, and a peak having a particle size in the range of 1 μm or more and 15 μm or less and having a median diameter D50 of 1.5 μm or more and 4 μm or less; a silver powder C having a particle size in the range of 10 nm or more and 190 nm or less and having a median diameter D50 of 50 nm or more and 150 nm or less; and a solvent, wherein the content of the silver powder C is more than 5.0 parts by mass and less than 90.0 parts by mass based on 100 parts by mass in total of the flake-like silver powder A, the spherical silver powder D, and the silver powder C; and wherein the particle size range and median diameter D50 of each silver powder is measured by a laser diffraction method. a flake-like silver powder A having a particle size in the range of 1 μm or more and 15 μm or less and having a median diameter D50 of 2 μm or more and 5 μm or less; a spherical silver powder D having a bimodal particle size distribution with a peak having a particle size in the range of 200 nm or more and 800 nm or less and having a median diameter D50 of 300 nm or more and 600 nm or less, and a peak having a particle size in the range of 1 μm or more and 15 μm or less and having a median diameter D50 of 1.5 μm or more and 4 μm or less; a silver powder C having a particle size in the range of 10 nm or more and 190 nm or less and having a median diameter D50 of 50 nm or more and 150 nm or less; and a solvent, wherein the content of the silver powder C is more than 5.0 parts by mass and less than 90.0 parts by mass based on 100 parts by mass in total of the flake-like silver powder A, the spherical silver powder D, and the silver powder C; and wherein the particle size range and median diameter D50 of each silver powder is measured by a laser diffraction method.
Prefabricated heatable media line having at least one media line with a line wall and an inner line lumen , and at least one line connector connected to the media line for connecting the media line to at least one component and/or to another prefabricated media line, and at least one heating device which is coiled and/or extends with deflections along the media line and the line connector , and at least one insulating cladding system which encloses the media line and the line connector at least in large part in the axial peripheral extent, characterised in that the heating device is a heater-band strand which comprises at least two contact conductors and at least one electrically conductive plastics material with electrically conductive nano-sized particles in contact with the contact conductors , wherein the heater-band strand is flexible and bendable as a result of its geometry and/or the choice of material and/or the nature of the material and has a height-to-width ratio (a : b) of from 0.3 to 0.7 and the height (a) of the heater-band strand corresponds to approximately from 1.2 to 1.5 times the thickness (s w ) of the line wall of the media line , wherein the heater-band strand is arranged on the outside of the media line and the line connector at least partially in coiled form and is provided at one end with electrical contacting and at the other end with insulation for the contact conductor ends , wherein at least one end portion of the heater-band strand is arranged in the region of one of the line connectors and the heater-band strand is in the form of an in-strand without crimp points.
An electric circuit arrangement to control current generation, comprising: - a current generator circuit having a first output terminal and being configured to generate an output current (I1), - a controller configured to generate control signals (C 1 , IC 1 , ...C N+1 , IC N+1 ) to control the current generator circuit , - a random code generator configured to generate random codes, - a counter configured to generate a count, - wherein the current generator circuit comprises a plurality of output current paths (P 1 , ..., P N+1 ) and a plurality of controllable switching circuits (SC 1 , ..., SC N+1 ), wherein each of the output current paths (P 1 , ..., P N+1 ) includes a respective electrical component (T 1 , ..., T N+1 ) to define a current in the respective output current path (P 1 , ..., P n+1 ), and wherein a respective one of the controllable switching circuits (SC 1 , ..., SC N+1 ) is coupled to a respective one of the output current paths (P 1 , ..., P N+1 ) to connect the respective electrical component (T 1 , ..., T N+1 ) to the first output terminal , - wherein the random code generator is configured to provide a respective code derived from a respective one of the random codes, - wherein the controller is configured to use the respective derived code or the count depending on the derived code to generate a respective one of the control signals (C 1 , IC 1 , ...C N+1 , IC N+1 ) to control a respective one of the controllable switching circuits (SC 1 , ..., SC N+1 ) of the current generator circuit . - a current generator circuit having a first output terminal and being configured to generate an output current (I1), - a controller configured to generate control signals (C 1 , IC 1 , ...C N+1 , IC N+1 ) to control the current generator circuit , - a random code generator configured to generate random codes, - a counter configured to generate a count, - wherein the current generator circuit comprises a plurality of output current paths (P 1 , ..., P N+1 ) and a plurality of controllable switching circuits (SC 1 , ..., SC N+1 ), wherein each of the output current paths (P 1 , ..., P N+1 ) includes a respective electrical component (T 1 , ..., T N+1 ) to define a current in the respective output current path (P 1 , ..., P n+1 ), and wherein a respective one of the controllable switching circuits (SC 1 , ..., SC N+1 ) is coupled to a respective one of the output current paths (P 1 , ..., P N+1 ) to connect the respective electrical component (T 1 , ..., T N+1 ) to the first output terminal , - wherein the random code generator is configured to provide a respective code derived from a respective one of the random codes, - wherein the controller is configured to use the respective derived code or the count depending on the derived code to generate a respective one of the control signals (C 1 , IC 1 , ...C N+1 , IC N+1 ) to control a respective one of the controllable switching circuits (SC 1 , ..., SC N+1 ) of the current generator circuit .
Electrical installation device having a support frame provided for wall mounting, a base fastened to the support frame , a receiving cup placed in front of the support frame , a light emitting element received in or on the receiving cup , and with a frame which covers the light emitting element at least partially on its surface facing away from the receiving cup , the receiving cup having a light-transmitting area in order to enable backlighting of the electrical installation device , wherein a first contact zone of a transmission element is electrically conductively contacted or contactable, and wherein the transmission element is electrically conductively connected with a second contact zone to the light emitting element , characterized in in that the transmission element is fastened to the support frame , the transmission element having a first component section and a second component section, the support frame being accommodated between the first component section and the second component section of the transmission element .
A system comprising at least one processing unit , wherein: the system further comprises at least one computer-readable medium comprising first processor-executable instructions of an interface provider module and second processor-executable instructions of an interface consumer module ; the first processor-executable instructions are executable by the at least one processing unit to cause the at least one processing unit to perform first operations comprising: instantiating an interface associated with the provider module; receiving, by a service routine of the provider module, a verification message associated with the interface; and sending, in response, a confirmation message via the interface; and the second processor-executable instructions are executable by the at least one processing unit to cause the at least one processing unit to perform second operations comprising: locating the interface; opening a handle to the interface; sending the verification message via the handle, the verification message identifying at least an interface type or a version; and receiving, via the handle, the confirmation message associated with the verification message. the system further comprises at least one computer-readable medium comprising first processor-executable instructions of an interface provider module and second processor-executable instructions of an interface consumer module ; the first processor-executable instructions are executable by the at least one processing unit to cause the at least one processing unit to perform first operations comprising: instantiating an interface associated with the provider module; receiving, by a service routine of the provider module, a verification message associated with the interface; and sending, in response, a confirmation message via the interface; and instantiating an interface associated with the provider module; receiving, by a service routine of the provider module, a verification message associated with the interface; and sending, in response, a confirmation message via the interface; and the second processor-executable instructions are executable by the at least one processing unit to cause the at least one processing unit to perform second operations comprising: locating the interface; opening a handle to the interface; sending the verification message via the handle, the verification message identifying at least an interface type or a version; and receiving, via the handle, the confirmation message associated with the verification message. locating the interface; opening a handle to the interface; sending the verification message via the handle, the verification message identifying at least an interface type or a version; and receiving, via the handle, the confirmation message associated with the verification message.