mhurhangee/patent-ind-claim-en huggingface dataset:
A hot work tool steel containing, in mass%, 0.25 to 0.45% of C, 0.1 to 0.4% of Si, 0.5 to 0.9% of Mn, 0.2 to 0.6% of Ni, 5.2 to 5.5% of Cr, 0.6 to 0.9% of V, one or both of Mo and W in a relational expression of (Mo + 1/2W): 1.9 to 2.3%, and a balance of Fe and impurities, wherein the relationship of the content of each element calculated by the following Formula 1 and Formula 2 satisfies that value A is 6.00 or more and value B is 1.00 or less, Value A = − 0.7 % Si + 1.5 % Mn + 1.3 % Ni + 0.9 % Cr + 0.6 % Mo + 1 / 2 W + 0.3 % V Value B = 1.9 % C + 0.043 % Si + 0.12 % Mn + 0.09 % Ni + 0.042 % Cr + 0.03 % Mo + 1 / 2 W − 0.12 % V wherein the content in mass% of each element is shown in parentheses.
A hearing aid comprising a power supply connected to supply power to a hearing aid circuit with an input transducer configured to output an audio signal based on a signal applied to the input transducer and representing sound, a hearing loss processor configured to compensate a hearing loss of a user of the hearing aid and output a hearing loss compensated audio signal , an output transducer configured to output an auditory output signal based on the hearing loss compensated audio signal that can be received by the human auditory system resulting in the user hearing sound, and a wireless communication unit configured to communicate wirelessly with another device, an energy storage unit coupled to supply the wireless communication unit with power, and a current limiting unit , comprising a current limiter coupled in series between the power supply and the energy storage unit , and coupled for control of replenishment of the energy storage unit with energy from the power supply .
A method of lyophilizing a pharmaceutical substance in a liquid formulation, wherein the pharmaceutical substance is an unconjugated polysaccharide of one of the serotypes of Pneumococcal 13-Valent vaccine (Serotype X) and the formulation including the polysaccharide, sucrose and Diphteria CRM 197 protein, the method comprising a freezing step, wherein water in the liquid formulation is converted to ice, followed by a primary drying step, characterized in that the primary drying step removes water in the pharmaceutical substance by direct sublimation, and is executed at a product temperature at or above the collapse temperature but below the eutectic melting temperature without avoiding cake collapse, wherein collapse temperature is the temperature at which the lyophilized cake loses or changes its original structure, such that the lyophilized pharmaceutical substance is suitable for later reconstitution to a biologically or pharmaceutically active substance.
Method for manufacturing fluoro(hydro)carbon-substituted silicon or germanium quantum dots which comprises the steps of: - reacting a Zintl salt or intermetallic compound of post-transition metals or metalloids of silicon or germanium with a halogen-containing oxidizing agent to form halide-terminated silicon or germanium quantum dots, - reacting the halide-terminated silicon or germanium quantum dots with a fluoro(hydro)carbon agent selected from the group of metal-fluoro(hydro)carbon compounds of the formula MR q , wherein M is a metal selected from Group 1, 2, 4, 11, 12, 13, or 14 of the periodic table of elements, q is an integer which corresponds to the valence of the metal, and R is CFnHm-fluoro/hydro-carbon, wherein n is 1 or 2, m is 0 or 1, and the total of n and m is 2, wherein each R may be the same or different, metal-fluoro(hydro)carbon halide compounds of the formula NQ a R p wherein N is a metal selected from Group 1, 2, 4, 11, 12, 13, or 14 of the periodic table of elements, Q is a halogen selected from F, Cl, Br, or I, wherein each Q may be the same or different, a and p are integers in the range of 1-3, and the total of a and p corresponds to the valence of the metal, and R is as defined above, and metal-fluoro(hydro)carbon compounds of the formula CuR 2 Li, wherein R is as defined above, to form fluoro(hydro)carbon-substituted silicon or germanium quantum dots. - reacting a Zintl salt or intermetallic compound of post-transition metals or metalloids of silicon or germanium with a halogen-containing oxidizing agent to form halide-terminated silicon or germanium quantum dots, - reacting the halide-terminated silicon or germanium quantum dots with a fluoro(hydro)carbon agent selected from the group of metal-fluoro(hydro)carbon compounds of the formula MR q , wherein M is a metal selected from Group 1, 2, 4, 11, 12, 13, or 14 of the periodic table of elements, q is an integer which corresponds to the valence of the metal, and R is CFnHm-fluoro/hydro-carbon, wherein n is 1 or 2, m is 0 or 1, and the total of n and m is 2, wherein each R may be the same or different, metal-fluoro(hydro)carbon halide compounds of the formula NQ a R p wherein N is a metal selected from Group 1, 2, 4, 11, 12, 13, or 14 of the periodic table of elements, Q is a halogen selected from F, Cl, Br, or I, wherein each Q may be the same or different, a and p are integers in the range of 1-3, and the total of a and p corresponds to the valence of the metal, and R is as defined above, and metal-fluoro(hydro)carbon compounds of the formula CuR 2 Li, wherein R is as defined above, to form fluoro(hydro)carbon-substituted silicon or germanium quantum dots.
Building closure device with a first frame and a second frame mounted movable relative to the first frame , wherein the first frame and the second frame are coupled to one another via a friction brake , which effects a braking force directed against a relative displacement of the two frames , wherein the friction brake is arranged in a groove and movable in an axial direction with respect to a longitudinal central axis of the groove , which is configured in one of the frames and delimited by opposite groove edges , characterised in that the friction brake comprises braking elements , which are insertable separately from one another into the groove via a mouth opening delimited by the groove edges of the groove , and, after assembly, are held form-fittingly to one another in the groove by engaging behind the groove edges on opposite sides and bear slidingly against the frame .
An apparatus of a base station (120; 220; 250; 310; 410; 620; 720; 803;910; 1003; 1210; 1310;1410) in a wireless communication system, the apparatus comprising: a transceiver configured to receive information comprising at least one of channel information and data delay time associated with a user equipment (110;230;260; 320,330; 510;610; 710; 801), wherein the data delay time includes a time period from a transmission of data by the base station to a reception of the data by the user equipment; and at least one processor configured to determine a buffer threshold of a buffer for storing data to be transmitted to the user equipment based on the information, wherein the transceiver is further configured to transmit, to at least one server (130; 210,240;340,350, 360; 440,450; 540;630;730;805;1230;1320,1330;1420), a message for requesting a data size of data for the at least one server to transmit to the base station, and receive, from the at least one server, data corresponding to the data size, wherein the data size is decreased based on determining an amount of the stored data in the buffer exceeds the buffer threshold, and wherein the data size is increased based on determining the amount of the stored data in the buffer is below the buffer threshold. a transceiver configured to receive information comprising at least one of channel information and data delay time associated with a user equipment (110;230;260; 320,330; 510;610; 710; 801), wherein the data delay time includes a time period from a transmission of data by the base station to a reception of the data by the user equipment; and at least one processor configured to determine a buffer threshold of a buffer for storing data to be transmitted to the user equipment based on the information, wherein the transceiver is further configured to transmit, to at least one server (130; 210,240;340,350, 360; 440,450; 540;630;730;805;1230;1320,1330;1420), a message for requesting a data size of data for the at least one server to transmit to the base station, and receive, from the at least one server, data corresponding to the data size, wherein the data size is decreased based on determining an amount of the stored data in the buffer exceeds the buffer threshold, and wherein the data size is increased based on determining the amount of the stored data in the buffer is below the buffer threshold.
A lens structure, comprising: a lens tube ; a first lens located on a first end-face of the lens tube and outside the lens tube as well as disposed on an outer side of the lens tube , wherein the first lens comprises a light converging region and an edge region located at an edge around the light converging region; a light shielding structure covering the edge region of the first lens ; and at least one second lens located inside the lens tube , wherein the first lens is fixedly bonded with the lens tube , and wherein the first lens is fixedly bonded with the light shielding structure by using a liquid adhesive or a double-sided adhesive. a lens tube ; a first lens located on a first end-face of the lens tube and outside the lens tube as well as disposed on an outer side of the lens tube , wherein the first lens comprises a light converging region and an edge region located at an edge around the light converging region; a light shielding structure covering the edge region of the first lens ; and at least one second lens located inside the lens tube , wherein the first lens is fixedly bonded with the lens tube , and wherein the first lens is fixedly bonded with the light shielding structure by using a liquid adhesive or a double-sided adhesive.
A semiconductor apparatus comprising: first and second power transistors (SWb, SWa) connected in parallel to each other; a first resistor (R1) connected to a first control terminal of the first power transistor; and a first diode (D1) connected in parallel to the first resistor, wherein in the first diode, a direction toward the first control terminal of the first power transistor is a forward direction, a second control terminal of the second power transistor and the first control terminal of the first power transistor are adapted to be commonly controlled, the first control terminal of the first power transistor is connected with both one end of the first resistor and one end of the first diode, a first mounting region on which a semiconductor chip is mounted, the semiconductor chip including the first power transistor, the first resistor, a first gate terminal connected via the first resistor to the first control terminal, and a second gate terminal directly connected to the first control terminal; a second mounting region connected to the first gate terminal and connected to the second gate terminal via a third mounting region, the second mounting region being adapted to be supplied with a control signal for the first control terminal; and the one end of the first diode is mounted on the third mounting region and another end of the first diode is mounted on the second mounting region. first and second power transistors (SWb, SWa) connected in parallel to each other; a first resistor (R1) connected to a first control terminal of the first power transistor; and a first diode (D1) connected in parallel to the first resistor, wherein in the first diode, a direction toward the first control terminal of the first power transistor is a forward direction, a second control terminal of the second power transistor and the first control terminal of the first power transistor are adapted to be commonly controlled, the first control terminal of the first power transistor is connected with both one end of the first resistor and one end of the first diode, a first mounting region on which a semiconductor chip is mounted, the semiconductor chip including the first power transistor, the first resistor, a first gate terminal connected via the first resistor to the first control terminal, and a second gate terminal directly connected to the first control terminal; a second mounting region connected to the first gate terminal and connected to the second gate terminal via a third mounting region, the second mounting region being adapted to be supplied with a control signal for the first control terminal; and the one end of the first diode is mounted on the third mounting region and another end of the first diode is mounted on the second mounting region.
A method of producing 2,5-bis(hydroxymethyl)furan and/or 2,5-bis(hydroxymethyl)tetrahydrofuran and/or 1,2,6-hexanetriol; the method comprising the step of (a) contacting hydroxymethylfurfural with a catalyst comprising Ni and Ce in an atmosphere comprising Hz at a temperature in the range 100 to 250°C; the content of Ni in the catalyst being 1-30 wt%; the content of Ce in the catalyst being 1-30 wt%. the method comprising the step of (a) contacting hydroxymethylfurfural with a catalyst comprising Ni and Ce in an atmosphere comprising Hz at a temperature in the range 100 to 250°C; the content of Ni in the catalyst being 1-30 wt%; the content of Ce in the catalyst being 1-30 wt%.
A method for Optical Network Unit, ONU, management, performed by a device for ONU management, comprising: generating a first command and a second command when an ONU is determined to be online, wherein the second command carries a first identifier that is used to identify the ONU; and sending the first command to an Optical Line Terminal, OLT, via a first interface of the device for ONU management, wherein the first command is used to configure the OLT; characterized in that the method further comprises: generating a first management message according to the second command, and sending the first management message to the ONU via a second interface of the device for ONU management, wherein the first management message is sent to the ONU via the OLT, and the first management message carries the first identifier. generating a first command and a second command when an ONU is determined to be online, wherein the second command carries a first identifier that is used to identify the ONU; and sending the first command to an Optical Line Terminal, OLT, via a first interface of the device for ONU management, wherein the first command is used to configure the OLT; characterized in that the method further comprises: generating a first management message according to the second command, and sending the first management message to the ONU via a second interface of the device for ONU management, wherein the first management message is sent to the ONU via the OLT, and the first management message carries the first identifier.
A method comprising: receiving , by a mobile computing device, a plurality of acceleration measurements measured by an accelerometer during a time window; determining , by the mobile computing device and for each of the plurality of acceleration measurements, a corresponding acceleration magnitude; based on the corresponding acceleration magnitude, identifying , by the mobile computing device and from the plurality of acceleration measurements, an acceleration measurement having an acceleration magnitude that satisfies a metric; determining , by the mobile computing device, that the corresponding acceleration magnitude of the identified acceleration measurement exceeds a threshold acceleration magnitude; after determining that the acceleration magnitude exceeds the threshold acceleration magnitude, corroborating , based on sensor measurements different from the plurality of acceleration measurements, whether a vehicle associated with the mobile computing device was involved in a crash; and transmitting , by the mobile computing device, via communication circuitry associated with the mobile computing device, and to a server, data indicative of the acceleration magnitude and data indicative of the sensor measurements. receiving , by a mobile computing device, a plurality of acceleration measurements measured by an accelerometer during a time window; determining , by the mobile computing device and for each of the plurality of acceleration measurements, a corresponding acceleration magnitude; based on the corresponding acceleration magnitude, identifying , by the mobile computing device and from the plurality of acceleration measurements, an acceleration measurement having an acceleration magnitude that satisfies a metric; determining , by the mobile computing device, that the corresponding acceleration magnitude of the identified acceleration measurement exceeds a threshold acceleration magnitude; after determining that the acceleration magnitude exceeds the threshold acceleration magnitude, corroborating , based on sensor measurements different from the plurality of acceleration measurements, whether a vehicle associated with the mobile computing device was involved in a crash; and transmitting , by the mobile computing device, via communication circuitry associated with the mobile computing device, and to a server, data indicative of the acceleration magnitude and data indicative of the sensor measurements.
A bimetallic tube comprising a first metallic tube having an inner diameter (ID 1st ) and an outer diameter (OD 2nd ), and a second metallic tube having an inner diameter (ID 2nd ) and an outer diameter (OD 2nd ), wherein the first metallic tube is arranged within and force-fitted to the second metallic tube , wherein the first metallic tube comprises, in weight%, Fe+Cr ≤ 1.0; C ≤ 0.1; O ≤ 0.2; Hf ≤ 5.0; balance Zr and normally occurring impurities, and wherein the second metallic tube is an austenitic stainless steel comprising, in weight, C ≤ 0.04; Mn ≤ 3.0; P ≤ 0.05; S ≤ 0.04; Si ≤ 1.0; Cr 15.0 - 30.0; Ni 7.0 - 25.0; Mo ≤ 1.0; N ≤ 0.10; balance Fe and normally occurring impurities, and wherein the force-fitting of the first metallic tube to the second metallic tube is at least 20 μm determined by the following procedure: • measuring the inner diameter (ID BM ) of the bimetallic tube ; • removing the second metallic tube from the first metallic tube ; • measuring the inner diameter (ID 1st ) of the first metallic tube after the second metallic tube has been removed; • calculating the absolute value of the difference (ID BM - ID 1st ) between the inner diameter (ID BM ) of the bimetallic tube and the inner diameter (ID 1st ) of the first metallic tube after the second metallic tube has been removed. Fe+Cr ≤ 1.0; C ≤ 0.1; O ≤ 0.2; Hf ≤ 5.0; C ≤ 0.04; Mn ≤ 3.0; P ≤ 0.05; S ≤ 0.04; Si ≤ 1.0; Cr 15.0 - 30.0; Ni 7.0 - 25.0; Mo ≤ 1.0; N ≤ 0.10; • measuring the inner diameter (ID BM ) of the bimetallic tube ; • removing the second metallic tube from the first metallic tube ; • measuring the inner diameter (ID 1st ) of the first metallic tube after the second metallic tube has been removed; • calculating the absolute value of the difference (ID BM - ID 1st ) between the inner diameter (ID BM ) of the bimetallic tube and the inner diameter (ID 1st ) of the first metallic tube after the second metallic tube has been removed.
A method for providing a Physical Uplink Shared Channel, PUSCH, bitstream comprising the steps of - obtaining encoded user data; - interleaving the encoded user data; - scrambling the interleaved encoded user data; and - adding Rank Indication information to the scrambled encoded user data, characterized by the steps of - determining, based on a recursive algorithm, bit positions within the encoded user data which have been reserved for the Rank Indication information; - calculating bit destination addresses of the obtained encoded user data, wherein the calculating of the bit destination addresses is only provided for bit positions within the encoded user data which have not been reserved for the Rank Indication information; and - storing the interleaved encoded user data based on the calculated bit destination addresses in an output buffer, wherein - the interleaving comprises the step of reserving bit positions for the Rank Indication information. - obtaining encoded user data; - interleaving the encoded user data; - scrambling the interleaved encoded user data; and - adding Rank Indication information to the scrambled encoded user data, characterized by the steps of - determining, based on a recursive algorithm, bit positions within the encoded user data which have been reserved for the Rank Indication information; - calculating bit destination addresses of the obtained encoded user data, wherein the calculating of the bit destination addresses is only provided for bit positions within the encoded user data which have not been reserved for the Rank Indication information; and - storing the interleaved encoded user data based on the calculated bit destination addresses in an output buffer, wherein - the interleaving comprises the step of reserving bit positions for the Rank Indication information.
An apparatus comprising: a cleaning head removably attachable to a cleaning device, the cleaning head having an upper side and a lower side, and a suction inlet, the lower side of the cleaning head arranged to contact a surface to be cleaned; wherein the cleaning head is arranged to hold a cleaning sheet on the lower side of the cleaning head , and characterized in that it further comprises a dirt collection chamber permanently attached to the cleaning head and arranged to receive dirt from the suction inlet; wherein the dirt collection chamber is not openable by a user to dispose of dirt in the dirt collection chamber without damaging the dirt collection chamber . a cleaning head removably attachable to a cleaning device, the cleaning head having an upper side and a lower side, and a suction inlet, the lower side of the cleaning head arranged to contact a surface to be cleaned; wherein the cleaning head is arranged to hold a cleaning sheet on the lower side of the cleaning head , and characterized in that it further comprises a dirt collection chamber permanently attached to the cleaning head and arranged to receive dirt from the suction inlet; wherein the dirt collection chamber is not openable by a user to dispose of dirt in the dirt collection chamber without damaging the dirt collection chamber .
Method for processing optical workpieces, in particular lenses or spectacle lenses, wherein the workpieces are conveyed by means of a transport system to processing lines (B) according to an assignment (Z), characterised in that the assignment (Z) of already assigned workpieces is checked upon detection of a new workpiece or order (O) to be processed and/or in each case before actual transfer of a workpiece from the transport system to the assigned processing line (B), and if a processing device of a processing line (B) which is irreplaceable for the processing or a processing line (B) in general or a corresponding transfer system , temporarily or permanently, has failed or is blocked or is occupied or overoccupied, for example by other workpieces, is replaced by a new assignment (N). wherein the workpieces are conveyed by means of a transport system to processing lines (B) according to an assignment (Z), characterised in that the assignment (Z) of already assigned workpieces is checked upon detection of a new workpiece or order (O) to be processed and/or in each case before actual transfer of a workpiece from the transport system to the assigned processing line (B), and if a processing device of a processing line (B) which is irreplaceable for the processing or a processing line (B) in general or a corresponding transfer system , temporarily or permanently, has failed or is blocked or is occupied or overoccupied, for example by other workpieces, is replaced by a new assignment (N).