mhurhangee/patent-ind-claim-en huggingface dataset:
Combination - of a drive unit having - an electric motor which has - a stator and - a rotor comprising the output shaft , and - a transmission gear mechanism, - which is connected to an output shaft of the electric motor in a rotationally driving manner, - which comprises a planetary gear mechanism, and - which is arranged within the output shaft , which is designed as a hollow shaft, of the electric motor, characterized in that the combination comprises a tool unit which comprises a static part and a rotatable part , wherein the rotatable part is a tool or is connected to such a tool in a rotationally driving manner, and the static part is a tool housing which serves for rotatably mounting the tool, wherein a ring gear of the planetary gear mechanism of the drive unit is connected to the tool housing of the tool unit in a rotationally fixed manner. - of a drive unit having - an electric motor which has - a stator and - a rotor comprising the output shaft , and - a transmission gear mechanism, - which is connected to an output shaft of the electric motor in a rotationally driving manner, - which comprises a planetary gear mechanism, and - which is arranged within the output shaft , which is designed as a hollow shaft, of the electric motor, - an electric motor which has - a stator and - a rotor comprising the output shaft , and - a stator and - a rotor comprising the output shaft , and - a transmission gear mechanism, - which is connected to an output shaft of the electric motor in a rotationally driving manner, - which comprises a planetary gear mechanism, and - which is arranged within the output shaft , which is designed as a hollow shaft, of the electric motor, - which is connected to an output shaft of the electric motor in a rotationally driving manner, - which comprises a planetary gear mechanism, and - which is arranged within the output shaft , which is designed as a hollow shaft, of the electric motor,
A seal assembly comprising: a sealing element comprising a seal body comprising an inside flange with a sealing lip , an outside flange , and a center channel section located between the inside and outside flanges; and a locking ring comprising a ring body having a loading ring extending from an end plate , wherein the locking ring is in contact with the sealing element and wherein the loading ring is located between the inside flange and the outside flange and the ring body being characterized by : said ring body being made of 316L stainless steel manufactured by metal injection molding (MIM) and having an elastic modulus of about 117 GPa to about 138 GPa. a sealing element comprising a seal body comprising an inside flange with a sealing lip , an outside flange , and a center channel section located between the inside and outside flanges; and a locking ring comprising a ring body having a loading ring extending from an end plate , wherein the locking ring is in contact with the sealing element and wherein the loading ring is located between the inside flange and the outside flange and the ring body being characterized by : said ring body being made of 316L stainless steel manufactured by metal injection molding (MIM) and having an elastic modulus of about 117 GPa to about 138 GPa.
A computer-implemented method comprising: receiving as an input, a user interface (UI) comprising a plurality of elements: rendering an image of the UI; identifying the plurality of elements from the image according to a recursive procedure, comprising: generating from the image, a first two-dimensional array reflecting pixel information; generating from the first two-dimensional array, a second two-dimensional array based on transitions between the pixels of the image; and cropping the image based upon the second two-dimensional array; storing the plurality of elements in a first logic tree exhibiting a first hierarchical structure having the plurality of elements as leaf nodes, and logic terms as intermediate nodes; comparing the first logic tree to a second logic tree that, exhibits a second hierarchical structure, is labeled with semantic metadata, is stored within a knowledge base of a database, and represents an existing UI; and based upon the comparing, generating an output indicating a similarity between the first logic tree and the second logic tree. receiving as an input, a user interface (UI) comprising a plurality of elements: rendering an image of the UI; identifying the plurality of elements from the image according to a recursive procedure, comprising: generating from the image, a first two-dimensional array reflecting pixel information; generating from the first two-dimensional array, a second two-dimensional array based on transitions between the pixels of the image; and generating from the image, a first two-dimensional array reflecting pixel information; generating from the first two-dimensional array, a second two-dimensional array based on transitions between the pixels of the image; and cropping the image based upon the second two-dimensional array; storing the plurality of elements in a first logic tree exhibiting a first hierarchical structure having the plurality of elements as leaf nodes, and logic terms as intermediate nodes; comparing the first logic tree to a second logic tree that, exhibits a second hierarchical structure, is labeled with semantic metadata, is stored within a knowledge base of a database, and represents an existing UI; and exhibits a second hierarchical structure, is labeled with semantic metadata, is stored within a knowledge base of a database, and represents an existing UI; and based upon the comparing, generating an output indicating a similarity between the first logic tree and the second logic tree.
An apparatus configured to couple to an electrical penetration assembly, the apparatus comprising: an inorganic body comprising an outer housing body ; a plurality of electrical conductors disposed within the inorganic body and configured to transmit electrical and/or optical signals from an electrical penetration assembly through the apparatus; an inorganic electrical insulator sleeve disposed between the inorganic body and the plurality of electrical conductors , and configured to insulate the inorganic body from the plurality of electrical conductors ; an inorganic flange disposed on the inorganic body ; a plurality of sockets and/or pins operatively coupled to the plurality of electrical conductors and configured to transmit an electrical and/or optical signal between the electrical conductors and the electrical penetration assembly; an inorganic sealing ring disposed in communication with the inorganic flange and configured to deform and seal the inorganic flange and/or outer housing body to the electrical penetration assembly; and wherein the apparatus further comprises a threaded connector nut comprising a lap flange configured to engage the inorganic flange , the connector nut having a relief feature configured to provide thread relief and clearance for the inorganic flange and/or inorganic sealing ring . an inorganic body comprising an outer housing body ; a plurality of electrical conductors disposed within the inorganic body and configured to transmit electrical and/or optical signals from an electrical penetration assembly through the apparatus; an inorganic electrical insulator sleeve disposed between the inorganic body and the plurality of electrical conductors , and configured to insulate the inorganic body from the plurality of electrical conductors ; an inorganic flange disposed on the inorganic body ; a plurality of sockets and/or pins operatively coupled to the plurality of electrical conductors and configured to transmit an electrical and/or optical signal between the electrical conductors and the electrical penetration assembly; an inorganic sealing ring disposed in communication with the inorganic flange and configured to deform and seal the inorganic flange and/or outer housing body to the electrical penetration assembly; and wherein the apparatus further comprises a threaded connector nut comprising a lap flange configured to engage the inorganic flange , the connector nut having a relief feature configured to provide thread relief and clearance for the inorganic flange and/or inorganic sealing ring . an inorganic sealing ring disposed in communication with the inorganic flange and configured to deform and seal the inorganic flange and/or outer housing body to the electrical penetration assembly; and wherein the apparatus further comprises a threaded connector nut comprising a lap flange configured to engage the inorganic flange , the connector nut having a relief feature configured to provide thread relief and clearance for the inorganic flange and/or inorganic sealing ring .
An aluminum nitride-based sintered compact , comprising: aluminum nitride crystal particles comprising Mg; composite oxide comprising a rare earth element and Al, the composite oxide having a garnet crystal structure; and composite oxynitride comprising Mg and Al, the composite oxide and the composite oxynitride being interspersed as particles between the aluminum nitride crystal particles , wherein the composite oxide particles and the composite oxynitride particles do not exist in the form of a continuous grain boundary layer covering the surface of an aluminum nitride crystal particle and wherein the aluminum nitride crystal particle has a portion kept in direct contact with adjacent aluminum nitride crystal particles without intermediary of other phase, wherein a content of Mg in the aluminum nitride crystal particles falls in a range of 0.1 mol% or more and 1.0 mol% or less, based on a total of all metal elements contained in the aluminum nitride crystal particles taken as 100 mol%, the content of Mg being determined by examination of the fracture surface or mirror-finished surface of a section of the aluminum nitride-based sintered compact through local element analysis, such as wavelength dispersive X-ray spectrometry (WDS), energy dispersive X-ray spectrometry (EDS), or secondary ion mass spectrometry (SIMS) . aluminum nitride crystal particles comprising Mg; composite oxide comprising a rare earth element and Al, the composite oxide having a garnet crystal structure; and composite oxynitride comprising Mg and Al, the composite oxide and the composite oxynitride being interspersed as particles between the aluminum nitride crystal particles , wherein the composite oxide particles and the composite oxynitride particles do not exist in the form of a continuous grain boundary layer covering the surface of an aluminum nitride crystal particle and wherein the aluminum nitride crystal particle has a portion kept in direct contact with adjacent aluminum nitride crystal particles without intermediary of other phase, wherein a content of Mg in the aluminum nitride crystal particles falls in a range of 0.1 mol% or more and 1.0 mol% or less, based on a total of all metal elements contained in the aluminum nitride crystal particles taken as 100 mol%, the content of Mg being determined by examination of the fracture surface or mirror-finished surface of a section of the aluminum nitride-based sintered compact through local element analysis, such as wavelength dispersive X-ray spectrometry (WDS), energy dispersive X-ray spectrometry (EDS), or secondary ion mass spectrometry (SIMS) .
A key generating method for a vehicle access authentication framework having a first device operated by a vehicle owner, a second device operated by a delegated user, and a third device residing in a vehicle, wherein the first device and the second device are mobile devices; characterised in that the method is performed by the first device , and comprises: running an application to initiate the third device ; transmit a first request to generate a new secret key K to the third device ; sending a second request for an authentication key to the third device , the second request for the authentication key comprising an ID of the first device , id O ; receiving an authentication key K id O from the third device and store the authentication key K id O in a secured memory ; wherein the authentication key K id O is used for the first device accessing the vehicle, and K idO = h ( K , id Car , id O ), where h (.) is a cryptographic hash function, id Car is an ID of the third device, K is the new secret key; generating a delegated authentication key K id U , where K id U = h ( K id O , id U , P U ), in response to receiving a request for delegated authentication key from the second device , the request for delegated authentication key comprising an ID of the second device ; wherein id U is the ID of the second device , and P U is an access policy determined by the first device; and transmitting the delegated authentication key to the second device for the second device to access the vehicle. running an application to initiate the third device ; transmit a first request to generate a new secret key K to the third device ; sending a second request for an authentication key to the third device , the second request for the authentication key comprising an ID of the first device , id O ; receiving an authentication key K id O from the third device and store the authentication key K id O in a secured memory ; wherein the authentication key K id O is used for the first device accessing the vehicle, and K idO = h ( K , id Car , id O ), where h (.) is a cryptographic hash function, id Car is an ID of the third device, K is the new secret key; generating a delegated authentication key K id U , where K id U = h ( K id O , id U , P U ), in response to receiving a request for delegated authentication key from the second device , the request for delegated authentication key comprising an ID of the second device ; wherein id U is the ID of the second device , and P U is an access policy determined by the first device; and transmitting the delegated authentication key to the second device for the second device to access the vehicle.
A positioning information transmission method, wherein the method is applied to a base station, and the method comprises: determining an uplink subframe for carrying an uplink signal; determining a downlink subframe for carrying a downlink signal; determining (S203) first measurement information, wherein the first measurement information comprises a difference between a receiving time of the uplink signal and a sending time of the downlink signal, or the first measurement information comprises a difference between a receiving time of the downlink signal and a sending time of the uplink signal; determining (S205) second measurement information, wherein the second measurement information is used to indicate a time difference between the uplink subframe and the downlink subframe; and sending (S206) the first measurement information and the second measurement information to a positioning server, for locating a terminal device by the positioning server. determining an uplink subframe for carrying an uplink signal; determining a downlink subframe for carrying a downlink signal; determining (S203) first measurement information, wherein the first measurement information comprises a difference between a receiving time of the uplink signal and a sending time of the downlink signal, or the first measurement information comprises a difference between a receiving time of the downlink signal and a sending time of the uplink signal; determining (S205) second measurement information, wherein the second measurement information is used to indicate a time difference between the uplink subframe and the downlink subframe; and sending (S206) the first measurement information and the second measurement information to a positioning server, for locating a terminal device by the positioning server.
Method for heating a process gas in a top or bottom fired reformer comprising two outer lanes of reformer tubes and one or more inner lanes of reformer tubes , the method comprising flowing process gas through the reformer tubes of the inner and outer lanes, wherein each lane has a lane flow rate, which is defined as the total amount of process gas that flows through the reformer tubes of said lane per unit time, wherein the lane flow rate of at least one outer lane is different from the lane flow rate of at least one inner lane by having set the lane flow rate of said outer tube lane upstream of the reformer tube inlets in a gas header providing said at least one outer lane with process gas, or upstream thereof.
A microstructure apparatus, comprising: an approximately planar substrate having a first surface and a second surface opposed thereto; and a microstructure array comprising a plurality of microstructures contacting the first surface of the substrate and fixedly attached thereto, the microstructures being formed of a polymer matrix comprising: (a) at least one water-insoluble, biodegradeable polymer; (b) 20% of a hydrophilic component, wherein the hydrophilic component is PEG-PLGA; and (c) at least one therapeutic agent; wherein release of the therapeutic agent from the polymer matrix is sustained for a period of at least 1-144 hours; wherein the polymer matrix is composed to release the therapeutic agent from the polymer matrix at an initial release rate of about 0.05-10% / minute; wherein the microstructures comprise the therapeutic agent dispersed in the polymer matrix; and wherein the sustained release and the initial release are measured in accordance with the method defined in the description. an approximately planar substrate having a first surface and a second surface opposed thereto; and a microstructure array comprising a plurality of microstructures contacting the first surface of the substrate and fixedly attached thereto, the microstructures being formed of a polymer matrix comprising: (a) at least one water-insoluble, biodegradeable polymer; (b) 20% of a hydrophilic component, wherein the hydrophilic component is PEG-PLGA; and (c) at least one therapeutic agent; (a) at least one water-insoluble, biodegradeable polymer; (b) 20% of a hydrophilic component, wherein the hydrophilic component is PEG-PLGA; and (c) at least one therapeutic agent; wherein release of the therapeutic agent from the polymer matrix is sustained for a period of at least 1-144 hours; wherein the polymer matrix is composed to release the therapeutic agent from the polymer matrix at an initial release rate of about 0.05-10% / minute; wherein the microstructures comprise the therapeutic agent dispersed in the polymer matrix; and wherein the sustained release and the initial release are measured in accordance with the method defined in the description.
Curing agent for curing epoxy resins comprising at least one compound from the group of esters of phosphorus-containing acids according to formula (I) in which the following applies to the functional groups R 1 , R 2 , R 3 , R 6 , X and indices m, n, p, simultaneously or independently of one another: R 1 , R 2 = alkyl, simultaneously or independently of one another, R 3 = alkyl, aryl, -O-aryl, -O-alkylaryl or -O-arylalkyl, R 6 = hydrogen, alkyl or -NHC(O)NR 1 R 2 , X = oxygen or sulfur, m = 1, 2 or 3, n = 0, 1 or 2, where: m + n = 3 p = 0, 1 or 2. R 1 , R 2 = alkyl, simultaneously or independently of one another, R 3 = alkyl, aryl, -O-aryl, -O-alkylaryl or -O-arylalkyl, R 6 = hydrogen, alkyl or -NHC(O)NR 1 R 2 , X = oxygen or sulfur, m = 1, 2 or 3, n = 0, 1 or 2, where: m + n = 3 p = 0, 1 or 2.
A protection system for a DC power transmission system comprising: an AC-DC converter between an AC system and the DC power transmission system; an AC circuit breaker between the AC system and the AC-DC converter ; a DC circuit breaker between the DC power transmission system and the AC-DC converter ; and a bypass switch , capable of short-circuiting a converter cell included in the AC-DC converter , connected to an inside of the AC-DC converter or an outside of the AC-DC converter on an AC side, wherein the protection system is characterized in that the protection system further comprises a current limiter , which is connected to the AC-DC converter on a DC side and increases the circuit resistance component of a DC line that includes the DC circuit breaker and is connected to the AC-DC converter on the DC side via the current limiter , and when a fault occurs in the DC power transmission system, the protection system is adapted to perform the following steps in this order; turning on the bypass switch ; performing an operation of the current limiter ; performing an interruption by the AC circuit breaker ; and performing an interruption by the DC circuit breaker . an AC-DC converter between an AC system and the DC power transmission system; an AC circuit breaker between the AC system and the AC-DC converter ; a DC circuit breaker between the DC power transmission system and the AC-DC converter ; and a bypass switch , capable of short-circuiting a converter cell included in the AC-DC converter , connected to an inside of the AC-DC converter or an outside of the AC-DC converter on an AC side, wherein the protection system is characterized in that the protection system further comprises a current limiter , which is connected to the AC-DC converter on a DC side and increases the circuit resistance component of a DC line that includes the DC circuit breaker and is connected to the AC-DC converter on the DC side via the current limiter , and when a fault occurs in the DC power transmission system, the protection system is adapted to perform the following steps in this order; turning on the bypass switch ; performing an operation of the current limiter ; performing an interruption by the AC circuit breaker ; and performing an interruption by the DC circuit breaker .
A method of graphics processing, comprising: determining at least one split rendering application program interface, API, for a user device and a server, wherein the at least one split rendering API is at least one split rendering extended reality, XR, API; establishing a communication interface between the user device and the server based on the at least one split rendering API; implementing the at least one split rendering API on the user device and the server; dividing at least one application workload between the user device and the server based on the at least one split rendering API, wherein the at least one application workload comprises a rendering workload; and communicating between the user device and the server via the communication interface. determining at least one split rendering application program interface, API, for a user device and a server, wherein the at least one split rendering API is at least one split rendering extended reality, XR, API; establishing a communication interface between the user device and the server based on the at least one split rendering API; implementing the at least one split rendering API on the user device and the server; dividing at least one application workload between the user device and the server based on the at least one split rendering API, wherein the at least one application workload comprises a rendering workload; and communicating between the user device and the server via the communication interface.