mhurhangee/patent-ind-claim-en huggingface dataset:
Composition comprising a polypropylene copolymer containing 0.5 - 7 mol% ethylene comonomer an having an MFR of 5-50 g/lOmin, measured at 230°C according to ISO 1133, with a load of 2.16 kg, and a relative proportion of isolated and block comonomer sequences in the polypropylene (I(E)) in the range of 5 - 40, wherein I(E) is defined as I(E) = f PEP /((f EEE +f PEE +f PEP )) *100 in which I(E) is the relative content of isolated to block ethylene sequences (in %); f PEP is the mol fraction of propylene/ethylene/propylene sequences (PEP) in the sample; f PEE is the mol fraction of propylene/ethylene/ethylene sequences (PEE) and of ethylene/ethylene/propylene sequences (EEP) in the sample; and f EEE is the mol fraction of ethylene/ethylene/ethylene sequences (EEE) in the sample, all sequence concentrations being based on a statistical triad analysis of 13 C-NMR data. wherein I(E) is defined as I(E) = f PEP /((f EEE +f PEE +f PEP )) *100 in which I(E) is the relative content of isolated to block ethylene sequences (in %); f PEP is the mol fraction of propylene/ethylene/propylene sequences (PEP) in the sample; f PEE is the mol fraction of propylene/ethylene/ethylene sequences (PEE) and of ethylene/ethylene/propylene sequences (EEP) in the sample; and f EEE is the mol fraction of ethylene/ethylene/ethylene sequences (EEE) in the sample, all sequence concentrations being based on a statistical triad analysis of 13 C-NMR data.
An information acquiring apparatus that acquires information for processing a peripheral edge of an eyeglasses lens, characterized by : a first shape information acquiring portion configured to acquire first shape information regarding a shape of a projection part (RIRa) of an eyeglasses frame (F) having a rim (RIR), the projection part (RIRa) being formed on the rim (RIR) to be fitted into the eyeglasses lens; a second shape information acquiring portion configured to acquire second shape information regarding a shape of a peripheral edge of a demonstration lens (DL) or a template (MP) of the eyeglasses frame (F); and a groove information acquiring portion configured to acquire groove information regarding a groove formed in the eyeglasses lens for fitting the eyeglasses lens into the eyeglasses frame (F), based on the first shape information and the second shape information. a first shape information acquiring portion configured to acquire first shape information regarding a shape of a projection part (RIRa) of an eyeglasses frame (F) having a rim (RIR), the projection part (RIRa) being formed on the rim (RIR) to be fitted into the eyeglasses lens; a second shape information acquiring portion configured to acquire second shape information regarding a shape of a peripheral edge of a demonstration lens (DL) or a template (MP) of the eyeglasses frame (F); and a groove information acquiring portion configured to acquire groove information regarding a groove formed in the eyeglasses lens for fitting the eyeglasses lens into the eyeglasses frame (F), based on the first shape information and the second shape information.
A through-bore spool apparatus for use in deploying multiple spoolable media in a bore , the through-bore spool apparatus comprising: a first spool comprising a first spool axis and a first spoolable medium wound around the first spool axis ; and a second spool comprising a second spool axis and a second spoolable medium wound around the second spool axis ; wherein the first and second spoolable media are de-spoolable simultaneously from the respective first and second spools during movement of the through-bore spool apparatus along a bore , wherein the first spool defines an axial passage to accommodate the second spoolable medium to pass therethrough, and wherein the axial passage comprises an entry region to receive the second spoolable medium into the axial passage, and to guide the second spoolable medium to become substantially aligned with the first spool axis . a first spool comprising a first spool axis and a first spoolable medium wound around the first spool axis ; and a second spool comprising a second spool axis and a second spoolable medium wound around the second spool axis ; wherein the first and second spoolable media are de-spoolable simultaneously from the respective first and second spools during movement of the through-bore spool apparatus along a bore , wherein the first spool defines an axial passage to accommodate the second spoolable medium to pass therethrough, and wherein the axial passage comprises an entry region to receive the second spoolable medium into the axial passage, and to guide the second spoolable medium to become substantially aligned with the first spool axis .
A method for enhancing hardness of a filter for a smoking article comprising: disposing a plug wrap about filter material ; and applying a hardness-enhancing coating composition to the plug wrap after the plug wrap has been disposed about the filter material to enhance the hardness of the filter . disposing a plug wrap about filter material ; and applying a hardness-enhancing coating composition to the plug wrap after the plug wrap has been disposed about the filter material to enhance the hardness of the filter .
A system for cooling an enclosure , the system comprising: a thermostat configured to communicate with an air conditioning system, the thermostat further configured to: initiate a first phase of a first cooling cycle in the enclosure using the air conditioner system, wherein during the first phase, a compressor and a fan of the air conditioning system is activated; subsequent to the first phase, initiate a second phase of the first cooling cycle wherein the fan is activated and the compressor is not activated; measure one or more parameters during at least the second phase of the first cooling cycle; and alter a duration of a second phase of a subsequent cooling cycle based at least in part of the measurements during the first cooling cycle. initiate a first phase of a first cooling cycle in the enclosure using the air conditioner system, wherein during the first phase, a compressor and a fan of the air conditioning system is activated; subsequent to the first phase, initiate a second phase of the first cooling cycle wherein the fan is activated and the compressor is not activated; measure one or more parameters during at least the second phase of the first cooling cycle; and alter a duration of a second phase of a subsequent cooling cycle based at least in part of the measurements during the first cooling cycle.
An aerosol-generating device comprising: a device cavity having a proximal end and a distal end opposite the proximal end, wherein the proximal end of the device cavity is substantially open for receiving an aerosol-generating article , an inductive heating arrangement configured to heat an aerosol-forming substrate , the inductive heating arrangement comprising: a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate , a first LC circuit , the first LC circuit at least comprising a first inductor coil arranged towards the proximal end of the device cavity and a first capacitor , wherein the first LC circuit has a first resonance frequency, and a second LC circuit , the second LC circuit at least comprising a second inductor coil arranged towards the distal end of the device cavity and a second capacitor , wherein the second LC circuit has a second resonance frequency different from the first resonance frequency of the first LC circuit , and a controller configured to initiate heating of an aerosol-forming substrate by driving a first varying current in the first inductor coil and subsequently driving a second varying current in the second inductor coil . a device cavity having a proximal end and a distal end opposite the proximal end, wherein the proximal end of the device cavity is substantially open for receiving an aerosol-generating article , an inductive heating arrangement configured to heat an aerosol-forming substrate , the inductive heating arrangement comprising: a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate , a first LC circuit , the first LC circuit at least comprising a first inductor coil arranged towards the proximal end of the device cavity and a first capacitor , wherein the first LC circuit has a first resonance frequency, and a second LC circuit , the second LC circuit at least comprising a second inductor coil arranged towards the distal end of the device cavity and a second capacitor , wherein the second LC circuit has a second resonance frequency different from the first resonance frequency of the first LC circuit , and a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate , a first LC circuit , the first LC circuit at least comprising a first inductor coil arranged towards the proximal end of the device cavity and a first capacitor , wherein the first LC circuit has a first resonance frequency, and a second LC circuit , the second LC circuit at least comprising a second inductor coil arranged towards the distal end of the device cavity and a second capacitor , wherein the second LC circuit has a second resonance frequency different from the first resonance frequency of the first LC circuit , and a controller configured to initiate heating of an aerosol-forming substrate by driving a first varying current in the first inductor coil and subsequently driving a second varying current in the second inductor coil .
A method for transmission of reference signals, the method being performed by a terminal device , the terminal device being configured for codebook based precoding and comprising at least two physical antenna ports , the method comprising: obtaining (S104) an indication of higher path gain being experienced in one of the physical antenna ports than in the remaining physical antenna ports , and in response thereto: transmitting (S106), in all physical antenna port , as many uplink reference signals as there are physical antenna ports in total.
A terminal comprising: a controller configured to map a phase tracking reference signal, PTRS, to at least one symbol used for an uplink shared channel; and a transmitter configured to perform transmission processing for the uplink shared channel and the PTRS, wherein the controller is configured to set a reference for mapping the PTRS to a second symbol when the transmitter transmits a demodulation reference signal, DMRS, using a first symbol and the second symbol in the uplink shared channel. a controller configured to map a phase tracking reference signal, PTRS, to at least one symbol used for an uplink shared channel; and a transmitter configured to perform transmission processing for the uplink shared channel and the PTRS, wherein the controller is configured to set a reference for mapping the PTRS to a second symbol when the transmitter transmits a demodulation reference signal, DMRS, using a first symbol and the second symbol in the uplink shared channel.
A combination of dihydroxyacetone and cisplatin for use in treating cancers.
A composition for preparing bakery products and farinaceous goods, which comprises the following components: a. flour obtained from one or more shell fruits and/or oilseeds of non-legumes, in an amount of from 20 to 80% by weight, based on dry matter of the components a), b) and c), wherein the flour comprises at least one partially deoiled flour having a fat content of less than 30% by weight in an amount of at least 20% by weight, based on the total weight of the flour, and wherein the component a) comprises a maximum of 75% by weight, based on the total weight of the components a), of coconut flour; b. mucilaginous polysaccharide-comprising plant product or mucilaginous polysaccharides isolated from said plant products in an amount of from 5 to 40% by weight, based on dry matter of the components a), b) and c), c. protein component in an amount of from 4 to 40% by weight, based on dry matter of the components a), b) and c), wherein the component c) is selected from eggs, egg white and egg products, wherein the egg products are selected from whole egg powder and egg white powder, wherein the composition comprises a maximum of 0.1% by weight of gluten, wherein the fraction of the total amount of the components a), b) and c) of the composition, in each case calculated as dry matter of the components a), b) and c), of the total dry matter of the composition is at least 60% by weight, wherein the composition comprises less than 15% by weight of of utilizable carbohydrates, and wherein the composition comprises less than 15% by weight of soy products, based on the total amount of the dry components of the composition. a. flour obtained from one or more shell fruits and/or oilseeds of non-legumes, in an amount of from 20 to 80% by weight, based on dry matter of the components a), b) and c), wherein the flour comprises at least one partially deoiled flour having a fat content of less than 30% by weight in an amount of at least 20% by weight, based on the total weight of the flour, and wherein the component a) comprises a maximum of 75% by weight, based on the total weight of the components a), of coconut flour; b. mucilaginous polysaccharide-comprising plant product or mucilaginous polysaccharides isolated from said plant products in an amount of from 5 to 40% by weight, based on dry matter of the components a), b) and c), c. protein component in an amount of from 4 to 40% by weight, based on dry matter of the components a), b) and c), wherein the component c) is selected from eggs, egg white and egg products, wherein the egg products are selected from whole egg powder and egg white powder,
Composition comprising a mixture of 3-glycidyloxypropylalkoxysilane oligomers in a proportion of > 60% by weight based on the composition, which is storage stable over at least 8 weeks at a storage temperature of 60°C, has a colour number of < 20 mg Pt-Co/l measured according to ISO 4630 and ISO 6271, a pH of not less than 3.5 to not more than 6.5 measured according to DIN 38404-C5 and a monomer proportion of silane employed in the production of the composition of not more than 5 mol% based on the molar proportion of Si in the composition, wherein the proportion of epoxy groups bound in Si compounds and present in the composition is not less than 95 mol% based on the molar proportion of Si in the composition.
A hybrid rotary guiding device, comprising: a rotating shaft, the rotating shaft is able to drive a tool head to rotate, the rotating shaft includes an upper shaft portion, a lower shaft portion, and a steerable portion, a separation distance exists between the upper shaft portion and the lower shaft portion in the axial direction, the upper shaft portion and the lower shaft portion are steerably connected by the steerable portion; the upper shaft portion is installed with at least three first hydraulic mechanisms, and characterized in that the lower shaft portion is installed with at least three second hydraulic mechanisms, the second hydraulic mechanism is adapted to drive a pushing member against the wall of the well to guide the tool head, the first hydraulic mechanism and the second hydraulic mechanism are configured so that the first hydraulic mechanism can drive the second hydraulic mechanism to drive the pushing member. a rotating shaft, the rotating shaft is able to drive a tool head to rotate, the rotating shaft includes an upper shaft portion, a lower shaft portion, and a steerable portion, a separation distance exists between the upper shaft portion and the lower shaft portion in the axial direction, the upper shaft portion and the lower shaft portion are steerably connected by the steerable portion; the upper shaft portion is installed with at least three first hydraulic mechanisms, and characterized in that the lower shaft portion is installed with at least three second hydraulic mechanisms, the second hydraulic mechanism is adapted to drive a pushing member against the wall of the well to guide the tool head, the first hydraulic mechanism and the second hydraulic mechanism are configured so that the first hydraulic mechanism can drive the second hydraulic mechanism to drive the pushing member.
A method of controlling tooth movements for correcting malocclusions, comprising: receiving a plurality of digital tooth models of a subject having one or more malocclusions; determining a movement for each of the digital tooth models for correcting the malocclusions via a tooth movement manager module , wherein determining a movement comprises independently executing a tooth movement plan for each of the tooth models, wherein independently executing comprises concurrently triggering initiation of the treatment plans by the multiple tooth models; assigning a sphere of influence on each of the tooth models to set a proximity distance between each tooth model via a collision manager module , wherein assigning a sphere of influence further comprises monitoring for a collision between tooth models; monitoring an actual state of each tooth (20; 22, 24) of the subject; comparing the actual state of each tooth (20; 22, 24) against an expected state of each tooth model via a tooth manager module ; and adjusting the movement of one or more teeth (20; 22, 24) based on a comparison of the actual state and the expected state if a deviation is detected, characterized by further comprising communicating a collision warning to an adjacent tooth model such that one or more of the tooth models alter their movement to avoid the collision. receiving a plurality of digital tooth models of a subject having one or more malocclusions; determining a movement for each of the digital tooth models for correcting the malocclusions via a tooth movement manager module , wherein determining a movement comprises independently executing a tooth movement plan for each of the tooth models, wherein independently executing comprises concurrently triggering initiation of the treatment plans by the multiple tooth models; assigning a sphere of influence on each of the tooth models to set a proximity distance between each tooth model via a collision manager module , wherein assigning a sphere of influence further comprises monitoring for a collision between tooth models; monitoring an actual state of each tooth (20; 22, 24) of the subject; comparing the actual state of each tooth (20; 22, 24) against an expected state of each tooth model via a tooth manager module ; and adjusting the movement of one or more teeth (20; 22, 24) based on a comparison of the actual state and the expected state if a deviation is detected, characterized by further comprising communicating a collision warning to an adjacent tooth model such that one or more of the tooth models alter their movement to avoid the collision.
A system for manufacturing pellets from powdered material, in particular tablets, having a rotary tablet press which is arranged in a housing and supported by a frame in the housing , wherein an electric drive motor is integrated in a rotor of the tablet press, and the rotor is rotatably mounted on a middle column of the frame, and a control cabinet for the tablet press that contains inter alia a machine computer for operating the tablet press, wherein the middle column is supported on a horizontal support element which is arranged at a distance above a base plate situated on the floor, characterized in that the control cabinet is arranged in the gap between the horizontal support element and base plate , the control cabinet is designed to be removable from the gap, and rails are arranged on the base plate , and rollers or sliding elements are attached to the control cabinet and are engaged with the rails .
A turbine diaphragm airfoil comprising: an airfoil body having a pressure side and a suction side , the airfoil body including: a leading edge section which is an originally formed portion of the diaphragm airfoil forming a portion of each of the pressure side and the suction side ; and a trailing edge section integral with the leading edge section , the trailing edge section including: a prefabricated member affixed to the leading edge section , the prefabricated member forming a remainder of the pressure side of the airfoil body characterized in that the airfoil body is a composite airfoil body wherein the trailing edge section is formed of a two-part composite including the prefabricated member and a weld or braze section contacting the leading edge section and the prefabricated member, the weld or braze section forming a remainder of the suction side of the composite airfoil body replacing a removed original section of the airfoil proximate the trailing edge. a leading edge section which is an originally formed portion of the diaphragm airfoil forming a portion of each of the pressure side and the suction side ; and a trailing edge section integral with the leading edge section , the trailing edge section including: a prefabricated member affixed to the leading edge section , the prefabricated member forming a remainder of the pressure side of the airfoil body
A method of making a damper member , the method comprising: identifying a target vibrational mode to dampen; and tuning an acoustic attenuation of a damper member according to the target vibrational mode , wherein the damper includes a lattice network (26; 26') of a first material, the lattice network including interconnected pores , and a matrix of a second, different material within the interconnected pores , the tuning including selecting a first acoustic impedance for the lattice network (26; 26') in correspondence with selecting a second, different acoustic impedance of the matrix such that the acoustic attenuation of the damper member is tuned to dampen the target vibrational mode , wherein the first material is a metallic material and the second material is a different metallic material. identifying a target vibrational mode to dampen; and tuning an acoustic attenuation of a damper member according to the target vibrational mode , wherein the damper includes a lattice network (26; 26') of a first material, the lattice network including interconnected pores , and a matrix of a second, different material within the interconnected pores , the tuning including selecting a first acoustic impedance for the lattice network (26; 26') in correspondence with selecting a second, different acoustic impedance of the matrix such that the acoustic attenuation of the damper member is tuned to dampen the target vibrational mode , wherein the first material is a metallic material and the second material is a different metallic material.
Control device for an electrical circuit on a substrate made of polymeric material, incorporating carbonaceous conductive structures which define at least one integrated conductive track having higher electrical conductivity compared with the substrate, which control device includes an operating area able to be acted on by a user and having a pressure-deformable structure adapted to disturb the electrical properties of said integrated conductive track by a piezo-resistive effect, wherein said integrated conductive track comprises a thermally modified zone (Z) adjacent to a groove (B), on both sides of the groove, wherein an electrical conductivity is established in the thermally modified zone, characterised in that the thermally modified zone is arranged entirely on the same side with respect to the neutral plane (N) of the operating area of the device, and in that said integrated conductive track includes at least one segment which has a winding section at said operating area , and which includes sections of trajectory having a predominant component oriented in the plane of deformation of the operating area for more than a half of the total length of the winding section, which are subjected to a stressing differential when the operated area is acted on by the user such that said conductive structures experience deformation which causes a variation in electrical resistivity.